collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
collection of 624 ftir-atr absorbance spectra of drug ingredients, as compiled by scientific workgroup for the analysis of seized drugs. retrieved from https://swgdrug.org/ir.htm
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sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
polymer| awi| pksd 40 1,2,-polybutadiene beads
polymer| awi| alroko polyethylenwachs cwf 101 powder
polymer| awi| alroko polyethylenwachs cwn 201 powder
polymer| awi| alroko polyethylenwachs cwo 312 powder
polymer| awi| pksd 5 cellulose acetate powder
polymer| awi| deurex polyethylenwachs e08 kgelchen
polymer| awi| deurex polyethylenwachs e09k kgelchen
polymer| awi| deurex polyethylenwachs eo40 kgelchen
polymer| awi| expandable polystyrene weiss
polymer| awi| pksd 9 ethyl cellulose powder
polymer| awi| orbita film high density polyethylen exxon
polymer| awi| pksd 21 hydroxyethyl cellulose powder
polymer| awi| pksd 23 hydroxypropyl methyl cellulose powder
polymer| awi| rsh polymere ldpe folie natur
polymer| awi| rsh polymere ldpe regranulat natur
polymer| awi| orbita film low densitiy polyethylen
polymer| awi| orbita film high density polyethylen lupolen
polymer| awi| pksd 24 methyl cellulose powder
polymer| awi| pksd 25 methyl vinyl ether
polymer| awi| pksd 26 methyl vinyl ether
polymer| awi| pksd 27 nylon 6 pellets
polymer| awi| pksd 29 nylon 6 6
polymer| awi| pksd 30 nylon 6 9
polymer| awi| pksd 31 nylon 6 12
polymer| awi| pksd 32 nylon 11 pellets
polymer| awi| pksd 33 nylon 12 pellets
polymer| awi| kunstfaser polyamid 6 (un-)verstreckt
polymer| awi| kunstfaser polyamid 6
polymer| awi| mf folien polyamid 6, 30um
polymer| awi| mf folien polyamid 6, 60um
polymer| awi| kunstfaser polyamid 6 polyamid 6
polymer| awi| mf folien polybutylene terephtalat, 25um
polymer| awi| basf polybutylene terephtalat
polymer| awi| ptz folien polyethylenterephtalat 500 um
polymer| awi| folienwerk wolfen polyethylen terephtalat amorph
polymer| awi| ptz folien polyethylenterephtalat 350 um
polymer| awi| folienwerk wolfen polymilchsure
polymer| awi| ptz folien polymilchsure
polymer| awi| pksd 48 poly(2,6-dimethyl-p-phenylene oxide) powder
polymer| awi| pksd 61 poly(2-hydroxyethyl methacrylate) granular
polymer| awi| pksd 38 poly(acrylic acid) powder
polymer| awi| pksd 42 poly(butylene terephtalate) pellets
polymer| awi| pksd 58 poly(ethylene glycol) flakes
polymer| awi| pksd 60 poly(ethylene terephtalate) pellets
polymer| awi| pksd 64 poly(methyl methacrylate) powder
polymer| awi| pksd 73 poly(vinyl acetate) beads
polymer| awi| pksd 75 poly(vinyl alcohol), 98% hydrolyzed granular
polymer| awi| pksd 74 poly(vinyl alcohol), 99.7% hydrolyzed granular
polymer| awi| pksd 78 poly(vinyl chloride), carboxylated powder
polymer| awi| pksd 80 poly(vinylidene fluoride) powder
polymer| awi| pksd 82 poly(vinyl stearate) powder
polymer| awi| pksd 35 polyacetal pellets
polymer| awi| kunstfaser polyactide
polymer| awi| pksd 44 polycaprolactone pellets
polymer| awi| kunstfaser polyester pet
polymer| awi| ldpe folie paket rot
polymer| awi| pksd 56 polyethylene, low density pellets
polymer| awi| kunstfaser polypropylen weiss
polymer| awi| kunstfaser polypropylen blau
polymer| awi| pksd 68 polypropylene, isotactic pellets
polymer| awi| ptz folien polypropylen sft
polymer| awi| pksd 69 polystyrene pellets
polymer| awi| kunstfaser polyvinylidenfluorid
polymer| awi| pksd 81 polyvinylpyrrolidone powder
polymer| awi| basf polyoxymethylen
polymer| awi| rsh polymere pp folie natur
polymer| awi| rsh polymere pp regranulat natur
polymer| awi| orbita film polypropylen
polymer| awi| norflex polystyrol ohne beschichtung
polymer| awi| norflex polystyrol antistatisch beschichtet
polymer| awi| orbita film linear low densitiy polyethylen
polymer| awi| schaetti ldpe
polymer| awi| schaetti hdpe 100-400 um
polymer| awi| pksd 96 vinyl chloride
polymer| awi| zigarettenfilter celluloseacetat
polymer| awi| latex_handschuh
polymer| awi| folienwerk wolfen polyethylen terephtalat glycol mod.
polymer| awi| mf folien polyamid 66, 60um
polymer| awi| ptz folien polyethylenterephtalat 50 um
polymer| awi| ptz folien polypropylen tss
polymer| awi| polypropylene rsh
polymer| awi| rsh polymere hdpe schraubverschlsse gelb
polymer| awi| rsh polymere hdpe schraubverschlsse weiss
polymer| awi| polyvinylchlorid weichmacherfrei pink
collection of raman spectra of pharmaceutical excipients, compiled from the spectral data depository of this article:
karlis berzin, ruth e. sales, jonathan e. barnsley, greg walker, sara j.fraser-miller, keith c.gordon: low-wavenumber raman spectral database of pharmaceutical excipients; vibrational spectroscopy 107, 103021 (2020)
retrieved from https://zenodo.org/record/3614035
collection of raman spectra of pharmaceutical excipients, compiled from the spectral data depository of this article:
karlis berzin, ruth e. sales, jonathan e. barnsley, greg walker, sara j.fraser-miller, keith c.gordon: low-wavenumber raman spectral database of pharmaceutical excipients; vibrational spectroscopy 107, 103021 (2020)
retrieved from https://zenodo.org/record/3614035
collection of raman spectra of pharmaceutical excipients, compiled from the spectral data depository of this article:
karlis berzin, ruth e. sales, jonathan e. barnsley, greg walker, sara j.fraser-miller, keith c.gordon: low-wavenumber raman spectral database of pharmaceutical excipients; vibrational spectroscopy 107, 103021 (2020)
retrieved from https://zenodo.org/record/3614035
collection of raman spectra of pharmaceutical excipients, compiled from the spectral data depository of this article:
karlis berzin, ruth e. sales, jonathan e. barnsley, greg walker, sara j.fraser-miller, keith c.gordon: low-wavenumber raman spectral database of pharmaceutical excipients; vibrational spectroscopy 107, 103021 (2020)
retrieved from https://zenodo.org/record/3614035
collection of raman spectra of pharmaceutical excipients, compiled from the spectral data depository of this article:
karlis berzin, ruth e. sales, jonathan e. barnsley, greg walker, sara j.fraser-miller, keith c.gordon: low-wavenumber raman spectral database of pharmaceutical excipients; vibrational spectroscopy 107, 103021 (2020)
retrieved from https://zenodo.org/record/3614035
collection of raman spectra of pharmaceutical excipients, compiled from the spectral data depository of this article:
karlis berzin, ruth e. sales, jonathan e. barnsley, greg walker, sara j.fraser-miller, keith c.gordon: low-wavenumber raman spectral database of pharmaceutical excipients; vibrational spectroscopy 107, 103021 (2020)
retrieved from https://zenodo.org/record/3614035
collection of raman spectra of pharmaceutical excipients, compiled from the spectral data depository of this article:
karlis berzin, ruth e. sales, jonathan e. barnsley, greg walker, sara j.fraser-miller, keith c.gordon: low-wavenumber raman spectral database of pharmaceutical excipients; vibrational spectroscopy 107, 103021 (2020)
retrieved from https://zenodo.org/record/3614035
collection of raman spectra of pharmaceutical excipients, compiled from the spectral data depository of this article:
karlis berzin, ruth e. sales, jonathan e. barnsley, greg walker, sara j.fraser-miller, keith c.gordon: low-wavenumber raman spectral database of pharmaceutical excipients; vibrational spectroscopy 107, 103021 (2020)
retrieved from https://zenodo.org/record/3614035
collection of raman spectra of pharmaceutical excipients, compiled from the spectral data depository of this article:
karlis berzin, ruth e. sales, jonathan e. barnsley, greg walker, sara j.fraser-miller, keith c.gordon: low-wavenumber raman spectral database of pharmaceutical excipients; vibrational spectroscopy 107, 103021 (2020)
retrieved from https://zenodo.org/record/3614035
collection of raman spectra of pharmaceutical excipients, compiled from the spectral data depository of this article:
karlis berzin, ruth e. sales, jonathan e. barnsley, greg walker, sara j.fraser-miller, keith c.gordon: low-wavenumber raman spectral database of pharmaceutical excipients; vibrational spectroscopy 107, 103021 (2020)
retrieved from https://zenodo.org/record/3614035
collection of raman spectra of pharmaceutical excipients, compiled from the spectral data depository of this article:
karlis berzin, ruth e. sales, jonathan e. barnsley, greg walker, sara j.fraser-miller, keith c.gordon: low-wavenumber raman spectral database of pharmaceutical excipients; vibrational spectroscopy 107, 103021 (2020)
retrieved from https://zenodo.org/record/3614035
collection of raman spectra of pharmaceutical excipients, compiled from the spectral data depository of this article:
karlis berzin, ruth e. sales, jonathan e. barnsley, greg walker, sara j.fraser-miller, keith c.gordon: low-wavenumber raman spectral database of pharmaceutical excipients; vibrational spectroscopy 107, 103021 (2020)
retrieved from https://zenodo.org/record/3614035
collection of raman spectra of pharmaceutical excipients, compiled from the spectral data depository of this article:
karlis berzin, ruth e. sales, jonathan e. barnsley, greg walker, sara j.fraser-miller, keith c.gordon: low-wavenumber raman spectral database of pharmaceutical excipients; vibrational spectroscopy 107, 103021 (2020)
retrieved from https://zenodo.org/record/3614035
collection of raman spectra of pharmaceutical excipients, compiled from the spectral data depository of this article:
karlis berzin, ruth e. sales, jonathan e. barnsley, greg walker, sara j.fraser-miller, keith c.gordon: low-wavenumber raman spectral database of pharmaceutical excipients; vibrational spectroscopy 107, 103021 (2020)
retrieved from https://zenodo.org/record/3614035
collection of raman spectra of pharmaceutical excipients, compiled from the spectral data depository of this article:
karlis berzin, ruth e. sales, jonathan e. barnsley, greg walker, sara j.fraser-miller, keith c.gordon: low-wavenumber raman spectral database of pharmaceutical excipients; vibrational spectroscopy 107, 103021 (2020)
retrieved from https://zenodo.org/record/3614035
collection of raman spectra of pharmaceutical excipients, compiled from the spectral data depository of this article:
karlis berzin, ruth e. sales, jonathan e. barnsley, greg walker, sara j.fraser-miller, keith c.gordon: low-wavenumber raman spectral database of pharmaceutical excipients; vibrational spectroscopy 107, 103021 (2020)
retrieved from https://zenodo.org/record/3614035
collection of raman spectra of pharmaceutical excipients, compiled from the spectral data depository of this article:
karlis berzin, ruth e. sales, jonathan e. barnsley, greg walker, sara j.fraser-miller, keith c.gordon: low-wavenumber raman spectral database of pharmaceutical excipients; vibrational spectroscopy 107, 103021 (2020)
retrieved from https://zenodo.org/record/3614035
collection of raman spectra of pharmaceutical excipients, compiled from the spectral data depository of this article:
karlis berzin, ruth e. sales, jonathan e. barnsley, greg walker, sara j.fraser-miller, keith c.gordon: low-wavenumber raman spectral database of pharmaceutical excipients; vibrational spectroscopy 107, 103021 (2020)
retrieved from https://zenodo.org/record/3614035
collection of raman spectra of pharmaceutical excipients, compiled from the spectral data depository of this article:
karlis berzin, ruth e. sales, jonathan e. barnsley, greg walker, sara j.fraser-miller, keith c.gordon: low-wavenumber raman spectral database of pharmaceutical excipients; vibrational spectroscopy 107, 103021 (2020)
retrieved from https://zenodo.org/record/3614035
collection of raman spectra of pharmaceutical excipients, compiled from the spectral data depository of this article:
karlis berzin, ruth e. sales, jonathan e. barnsley, greg walker, sara j.fraser-miller, keith c.gordon: low-wavenumber raman spectral database of pharmaceutical excipients; vibrational spectroscopy 107, 103021 (2020)
retrieved from https://zenodo.org/record/3614035
collection of raman spectra of pharmaceutical excipients, compiled from the spectral data depository of this article:
karlis berzin, ruth e. sales, jonathan e. barnsley, greg walker, sara j.fraser-miller, keith c.gordon: low-wavenumber raman spectral database of pharmaceutical excipients; vibrational spectroscopy 107, 103021 (2020)
retrieved from https://zenodo.org/record/3614035
collection of raman spectra of pharmaceutical excipients, compiled from the spectral data depository of this article:
karlis berzin, ruth e. sales, jonathan e. barnsley, greg walker, sara j.fraser-miller, keith c.gordon: low-wavenumber raman spectral database of pharmaceutical excipients; vibrational spectroscopy 107, 103021 (2020)
retrieved from https://zenodo.org/record/3614035
collection of raman spectra of pharmaceutical excipients, compiled from the spectral data depository of this article:
karlis berzin, ruth e. sales, jonathan e. barnsley, greg walker, sara j.fraser-miller, keith c.gordon: low-wavenumber raman spectral database of pharmaceutical excipients; vibrational spectroscopy 107, 103021 (2020)
retrieved from https://zenodo.org/record/3614035
collection of raman spectra of pharmaceutical excipients, compiled from the spectral data depository of this article:
karlis berzin, ruth e. sales, jonathan e. barnsley, greg walker, sara j.fraser-miller, keith c.gordon: low-wavenumber raman spectral database of pharmaceutical excipients; vibrational spectroscopy 107, 103021 (2020)
retrieved from https://zenodo.org/record/3614035
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
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https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
https://doi.org/10.1007/s00216-018-1156-x
omnic correlation: 96
omnic correlation: na
omnic correlation: 99
omnic correlation: 99
omnic correlation: 92
omnic correlation: 96
omnic correlation: 95
omnic correlation: 96
omnic correlation: na
omnic correlation: na
omnic correlation: 88
omnic correlation: 87
omnic correlation: 86
omnic correlation: 99
omnic correlation: 88
omnic correlation: 97
omnic correlation: 92
omnic correlation: 90
https://www.hpu.edu/cncs/cmdr/
https://www.hpu.edu/cncs/cmdr/
https://www.hpu.edu/cncs/cmdr/
https://www.hpu.edu/cncs/cmdr/
https://www.hpu.edu/cncs/cmdr/
https://www.hpu.edu/cncs/cmdr/
https://www.hpu.edu/cncs/cmdr/
https://www.hpu.edu/cncs/cmdr/
https://www.hpu.edu/cncs/cmdr/
https://www.hpu.edu/cncs/cmdr/
https://www.hpu.edu/cncs/cmdr/
https://www.hpu.edu/cncs/cmdr/
https://www.hpu.edu/cncs/cmdr/
absorbance of natural & biogenic material of archeological interest. collected and provided by prof. steven weiner from kimmel center for archaeological science, weizmann institute of science, israel
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updated manually a flip of 55
updated manually a flip of 55
updated manually a flip of 55
updated manually a flip of 55
updated manually a flip of 55
updated manually a flip of 55
updated manually a flip of 55
updated manually a flip of 55
updated manually a flip of 55
updated manually a flip of 55
updated manually a flip of 55
atr perhaps multiple materials
atr perhaps multiple materials
atr perhaps multiple materials
atr perhaps multiple materials
atr perhaps multiple materials
atr perhaps multiple materials
atr perhaps multiple materials
atr perhaps multiple materials
atr perhaps multiple materials
atr perhaps multiple materials
atr perhaps multiple materials
atr weak signal
atr weak signal
atr weak signal
atr weak signal
atr weak signal
atr weak signal
atr weak signal
atr weak signal
atr weak signal
atr weak signal
atr weak signal
atr difficult to get high signal.
atr difficult to get high signal.
atr difficult to get high signal.
atr difficult to get high signal.
atr difficult to get high signal.
atr difficult to get high signal.
atr difficult to get high signal.
atr difficult to get high signal.
atr difficult to get high signal.
atr difficult to get high signal.
atr difficult to get high signal.
atr difficult to get high signal.
atr difficult to get high signal.
atr difficult to get high signal.
atr difficult to get high signal.
atr difficult to get high signal.
atr difficult to get high signal.
atr difficult to get high signal.
atr difficult to get high signal.
atr difficult to get high signal.
atr difficult to get high signal.
atr difficult to get high signal.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
there is a label for a different material on the particle.
there is a label for a different material on the particle.
there is a label for a different material on the particle.
there is a label for a different material on the particle.
there is a label for a different material on the particle.
there is a label for a different material on the particle.
there is a label for a different material on the particle.
there is a label for a different material on the particle.
there is a label for a different material on the particle.
there is a label for a different material on the particle.
there is a label for a different material on the particle.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
fractured under pressure of atr
fractured under pressure of atr
fractured under pressure of atr
fractured under pressure of atr
fractured under pressure of atr
fractured under pressure of atr
fractured under pressure of atr
fractured under pressure of atr
fractured under pressure of atr
fractured under pressure of atr
fractured under pressure of atr
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
atr has a different material on one side probably.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
difficult to keep on atr, slippery
difficult to keep on atr, slippery
difficult to keep on atr, slippery
difficult to keep on atr, slippery
difficult to keep on atr, slippery
difficult to keep on atr, slippery
difficult to keep on atr, slippery
difficult to keep on atr, slippery
difficult to keep on atr, slippery
difficult to keep on atr, slippery
difficult to keep on atr, slippery
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
?
?
?
?
?
?
?
?
?
?
?
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
corrected manually by looking at particles.
or last num 7? pehd
or last num 7? pehd
or last num 7? pehd
or last num 7? pehd
or last num 7? pehd
or last num 7? pehd
or last num 7? pehd
or last num 7? pehd
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
sample received from manufacturer and ground into microparticles in the lab 
spectra collected with thermofisher in10 uftir (cooled), transmission mode (absorbance), 
	resolution = 8, aperture = 50umx50um, filter = beer-norton, step = 25um
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices
interlaboratory comparison to calculate reproducible carbonyl indices