Identifying Additives in Pyrograms using CDS Additive Library and AMDIS
Technical notes | | CDS AnalyticalInstrumentation
Thermal analysis paired with advanced deconvolution enables reliable detection of additives in polymers, crucial for quality control, regulatory compliance, and material research.
This study demonstrates how the CDS Additive Library combined with the AMDIS deconvolution software can identify additives desorbed during pyrolysis of polymers. It contrasts low-temperature desorption and single-step pyrolysis approaches and highlights the use of a comprehensive additive database for targeted screening.
Pyrolysis of the flame-retardant polycarbonate yielded a complex chromatogram. AMDIS successfully deconvoluted overlapping signals and revealed the presence of tribromophenol, a flame retardant buried between two major peaks. Standard background subtraction methods failed to resolve this component.
Integration of larger, curated libraries and machine learning algorithms promises improved deconvolution accuracy. Coupling pyrolysis-GC/MS with complementary techniques, such as FT-IR or high-resolution MS, will expand the range of detectable additives and provide structural insights.
The combination of AMDIS deconvolution software and the CDS Additive Library offers a powerful, efficient approach to identify hidden additives in polymer matrices. This methodology enhances analytical capabilities for complex material assessments.
Pyrolysis
IndustriesEnergy & Chemicals
ManufacturerCDS Analytical
Summary
Significance of the Topic
Thermal analysis paired with advanced deconvolution enables reliable detection of additives in polymers, crucial for quality control, regulatory compliance, and material research.
Objectives and Overview
This study demonstrates how the CDS Additive Library combined with the AMDIS deconvolution software can identify additives desorbed during pyrolysis of polymers. It contrasts low-temperature desorption and single-step pyrolysis approaches and highlights the use of a comprehensive additive database for targeted screening.
Methodology and Instrumentation
- Sample Preparation and Pyrolysis: Flame-retardant polycarbonate heated to 700°C for 15 seconds using a CDS Pyroprobe system.
- Detection and Data Analysis: Gas chromatography coupled with mass spectrometry (GC/MS) and deconvolution via AMDIS.
- Additive Identification: Application of the CDS Additive Library containing over 400 compounds, including flame retardants, plasticizers, antioxidants, and solvents.
Main Results and Discussion
Pyrolysis of the flame-retardant polycarbonate yielded a complex chromatogram. AMDIS successfully deconvoluted overlapping signals and revealed the presence of tribromophenol, a flame retardant buried between two major peaks. Standard background subtraction methods failed to resolve this component.
Benefits and Practical Applications
- Rapid screening of polymer additives without prior fractionation.
- Enhanced sensitivity and selectivity in complex matrices.
- Application in research, QA/QC, and regulatory testing of polymers and related materials.
Future Trends and Opportunities
Integration of larger, curated libraries and machine learning algorithms promises improved deconvolution accuracy. Coupling pyrolysis-GC/MS with complementary techniques, such as FT-IR or high-resolution MS, will expand the range of detectable additives and provide structural insights.
Conclusion
The combination of AMDIS deconvolution software and the CDS Additive Library offers a powerful, efficient approach to identify hidden additives in polymer matrices. This methodology enhances analytical capabilities for complex material assessments.
Reference
- AMDIS software, National Institute of Standards and Technology.
Content was automatically generated from an orignal PDF document using AI and may contain inaccuracies.
Similar PDF
Py-GC HR-TOF of Circuit Board Polymer
|CDS Analytical|Applications
172 olutions APPLICATIONS INFORMATION USING ADVANCED SAMPLE HANDLING TECHNOLOGY Py-GC HR-TOF of Circuit Board Polymer Considering pyrolysis creates fragments which are typically not seen in traditional GC/MS(solvent) injections, interpretation may be tricky; some compounds are not found in traditional mass…
Key words
hrt, hrtcircuit, circuitboard, boardpolymer, polymertetrabromobisphenol, tetrabromobisphenoltof, tofmass, masstricky, trickytraditional, traditionalpyrogram, pyrogramretardant, retardantcontacting, contactingmeasurements, measurementspolycarbonate, polycarbonateolutions
Brominated Flame Retardants in a Polycarbonate
|CDS Analytical|Applications
#93a Brominated Flame Retardants in a Polycarbonate #93 Application Note Environment Author: T. Wampler Halogenated organic compounds are frequently added to polymers as flame retardants, especially in when they are used in furniture and electronics applications. Typical assays may include…
Key words
brominated, brominatedflame, flamebisphenol, bisphenolpolycarbonate, polycarbonateretardants, retardantshalogenated, halogenatedbromobisphenol, bromobisphenolbromotoluene, bromotoluenedibromophenols, dibromophenolsmertransfer, mertransferretar, retarretarinstrument, retarinstrumentsuffibe, suffibedibromobisphenol, dibromobisphenoltribromobisphenol
CDS 6000 Series Pyroprobe
2016|CDS Analytical|Brochures and specifications
Leaders In GC Sample Introduction Technology CDS 6000 Series Pyroprobe • Thermal GC Injection Systems for Pyrolysis, Thermal Desorption, Dynamic Headspace and Evolved Gas 465 Limestone Road, Oxford, PA 19363-0277, USA Tel: 800-541-6593 Fax: 610-932-4158 www.cdsanalytical.com CDS A Introduction CDS…
Key words
pyrolysis, pyrolysisthermal, thermaldesorption, desorptiondisc, discevolved, evolvedoptional, optionalelement, elementcapabilities, capabilitiesreactant, reactantribbon, ribbondrop, dropchamber, chamberprobe, probepolymer, polymercds
Material Characterization in the Automotive Industry Using Multi-Mode Pyrolysis GC/MS
|Frontier Lab|Guides
Material Characterization in the Automotive Industry Using Multi-Mode Pyrolysis GC/MS: A COMPREHENSIVE GUIDE FOR PYROLYSIS GCMS TECHNIQUE AND ITS USE IN THE AUTOMOTIVE INDUSTRY Table of Contents Why Pyrolysis GC/MS? 1 Analytical Problems & Pyrolysis-Based Solutions 2 Polymer Processing 4…
Key words
frontier, frontierega, egalab, labrubber, rubberpolycarbonate, polycarbonatepyrolysis, pyrolysisresin, resinpbt, pbtpolybutylene, polybutylenereactive, reactiveterephthalate, terephthalatecurable, curablethermal, thermalanalysis, analysisdegradation