Evaluation and Application of SPME Arrows

Slides:



Advertisements
Similar presentations
Detection of VOCs in Spoiling Pork using Field Asymmetric Ion Mobility Spectroscopy Meat Transportation The spoilage of meat during storage and transportation,
Advertisements

Chem. 231 – 3/4 Lecture. Announcements I Set 1 Lab Reports –Both Lab Reports due 3/13 –Only one of the lab reports needs to be detailed, the other can.
Analyzing Small Molecules by EI and GC-MS
Mass Spectrometer Autosampler Jake Ahrens Stephen Pearson Kyle Sala Seth Yellin Project Mentor: Professor Jane Hill.
The Foundations: Classical Split and Splitless Injection
© 2011 COLUMBIA Technologies. Use of MiHpt Systems to Improve Project Outcomes Rapid, Real-Time High Resolution Site Characterization © 2013 COLUMBIA Technologies.
Determination of BTEX Compounds in Ambient Air Using Solid Phase Microextraction Gas Chromatography-Mass Spectrometry Christopher L. Marcum 1 ; Bert C.
Food Analysis Lecture 23 (4/19/2005) HPLC (2) and Gas Chromatography (1) Qingrong Huang Department of Food Science Read Material: Chapter 29, page 479.
Gas Chromatography in the detection of Volatile Organic Compounds.
Chem. 230 – 9/16 Lecture. Announcements I First Homework Set (long problems) due today (solutions will be posted soon) Website now has Fall 2012 quizzes.
I n t e g r i t y - S e r v i c e - E x c e l l e n c e Headquarters U.S. Air Force 1 Direct Sampling Ion Trap Mass Spectrometry Rob R. Smith Oak Ridge.
SIDA-HS-SPME-GC/MS- a candidate reference method for the simultaneous quantitation of boar taint compounds in back fat “Boars heading for 2018“ - Scientific.
Chem. 231 – 2/4 Lecture. Announcements I Homework Set 1 is due 2/6 New Set will be available 2/6 (hopefully) which will be due 2 weeks later Quiz 1 on.
Sample Preparation and Results. Results  Mean, Median, Average  Deviation from the mean  Absolute and Relative Measures: Relative = Absolute/Mean Value.
Development of an Automated, Pyridine Free Method for Aerosol Cyanide Compounds and Hydrogen Cyanide. An Alternative to NIOSH LeRoy Dobson, Chemist.
Lecture 6 Sample preparation.
Methods Monitoring Polar Compounds Using Membrane Extraction and High-Speed Gas Chromatography Authors: Jonathan Maurer, Dr. Anthony J. Borgerding* Department.
Monitoring the desorption of analytes from nonpolar SPME fibers using high speed gas chromatography Authors: Kimberly Jasch, Tony Borgerding* Department.
Partitioning of VOCs: Why do we care? ä Determines how best to treat a site ä vapor extraction ä pump and treat ä remove contaminated soil ä Determines.
Faculty of Natural and Mathematical Sciences University of Banja Luka, Bosnia and Herzegovina Report on quality assessment of learning and training courses.
Extraction Methods Static Headspace (HS) Dynamic Headspace
Gas Chromatography Carrier Gas Flow Control Injector Port Column Column Oven Detector Recorder The GC system consists of gas supplies for the mobile phase.
ASTM WK Standard Test Method for Dissolved Gases Anne Jurek – Applications Chemist.
 Introduction  Theory  Advantages/Disadvantages  Applications  Conclusions.
Chem. 231 – 1/28 Lecture. Introduction Goals of Course Discussion of More Practical Aspects of Separation Science Provide Specific Lab Training in Use.
A Single Calibration for Waters and Soil Samples Performing EPA Method 8260 Anne Jurek – Applications Chemist.
Ultra-Trace PCB Sampling
1 / 9 ASTM D19 Method Validation Procedures William Lipps Analytical & Measuring Instrument Division July, 2015.
SPME Coupled with GC- FID for the Detection of n-Propyl Alcohol and Its Use as a Geothermal Tracer Michael Mella 1,2 1 Energy and Geoscience Institute.
Some innovative approaches in environmental analysis of oil shale wastes and discharges 1) National Institute of Chemical Physics and Biophysics, Akadeemia.
Overbrook Scientific.
Development of a headspace solid-phase microextraction method coupled to gas chromatography (HS-SPME GC-MS) to capture and analyze the volatile organic.
Analysis of semi-volatile organic compounds in aqueous samples by microwave-assisted headspace solid-phase microextraction coupled with gas chromatography-electron.
Application of solid-phase microextraction to the recovery of explosives and ignitable liquid residues from forensic specimens K.G. Furton, J.R. Almirall,
Automated SPE for NDMA and Metaldehyde in water using GC-QqQ
A Comparison of SPME Approaches for the Analysis of Alkylated PAHs in Pore Water Porewater: The Interaction between Sediment, Biota, and Water 2015 Fall.
Micro Analytical GC System for Tea Aroma in Product Quality Control Fred Lewis, Principal Chemist, Analytical Science Laboratory, Unilever John Crandall,
Source Water Protection Efforts Organics Detection System & Spill Notification Technical Committee Meeting, February 10-11, 2016 Covington, KY.
Phil Smith, PhD, CIH USDOL-OSHA Health Response Team Sandy, Utah Field-Portable GC-MS for Human Exposure Assessment.
The Use of Headspace With Sample Concentration to Meet Alberta Tier 1 VOC Guidelines Pat Steffes K’(Prime) Technologies Inc. April 25, 2013.
Determination of Trace Metals, Volatile Organic Compounds, and Other Water Standards in WMU Drinking Water By: Tyler Walter Thesis Chair: Dr. Carla M.
Electronic Sensor Technology, Inc. Preventing Air, Water & Soil Pollution with zNose®
G.A.S. Gesellschaft für analytische Sensorsysteme mbH - Trace Detection of VOCs in different Applications using Gas Chromatography - Ion Mobility Spectrometry.
Introduction to Gas Chromatography
OndaVia, Inc. Lab-grade water analysis for industrial IoT
On-site, laboratory-grade, rapid-response testing
Determinations and Interpretations of FTIR Detection Limits
Large Volume Parental (LVP) Application Biopharmaceutical Application
American Chemical Society, Fall 2012
Ed Connor, GC Product Specialist
Optimization of 1,4-Dioxane and Ethanol Detection
Revathi a/p Rajan Postgraduate Student, School of Health Sciences
Determination of Algae Compounds in Drinking Water
William Trebelcock & James Erdmann
Comparison of Heroin Samples with Vinegar
LC-MS/MS Analysis of Tetracycline antibiotics in Honey using Advance UHPLC-EVOQ™ SIMA LAB PVT LTD.
EPA Method A Summary of the Changes in the Newly Promulgated GC/MS Method for Volatile Organics in Wastewater Harry McCarty and Kevin Roberts CSRA,
Mário Silva1,2,3 , Tor Bjørnstad3 Results and Discussion
F Sporkert, F Pragst  Forensic Science International 
Silicon-Lined Canister Cleaning Practices and Blank VOC Concentrations
Developing a Consensus Test Method for Measuring Volatile Organic Compounds (VOCs) in Water utilizing Headspace Analysis with Gas Chromatography and Mass.
524.3 Purge Flow Study Anne Jurek – Sr. Applications Chemist
How to Meet the Analytical Requirements of NJ Low Level TO-15
Using ultrasonic liquid extraction for estrogens analysis in sludge by HPLC with fluorescence detection Vitória Lourosa, Diana Limab, Jorge Leitãoc, Valdemar.
Deyuan Kong, Brian Morlan, Roopa Kamath, and Sara Mcmillen
High Resolution Quantitation of Microcystins with SCIEX X500R QTOF System KC Hyland.
Extraction Procedure (2)
Brahm Prakash Tairo Ogura and William Lipps
A Holding Time Evaluation Study for the Analysis of PFAS in Aqueous Samples Charles Neslund, Scientific Officer, Eurofins Lancaster Laboratories Environmental,
Damiana Gentili Qualified Person/QU Director 09/05/2019
Presentation transcript:

Evaluation and Application of SPME Arrows Jason S. Herrington, Colton Myers, Gary Stidsen, Steve Kozel

Solid Phase Microextraction (SPME) SPME fibers were developed and patented by Janusz Pawliszyn in 1990 Subsequently licensed to Supelco until 2014

SPME Sampling/Desorbing Target analytes are collected via headspace or immersion Desorbed in the GC inlet 90% of applications

SPME Arrow Developed by CTC Analytics AG PAL Systems (“Rails”) To overcome the limited mechanical stability and small phase volumes

Traditional vs Arrow Arrow tip facilitates smooth septa penetration Fully protects phase Thicker needle is more durable Larger phase area/volume for increased sensitivity Arrow Traditional

Phase Volumes Initial design of up to 6x the area and 20x the volume Our calculations show 17 - 18x the volume Sensitivity (up to 10x) increase seems intuitive and reasonable

Sensitivity of HS VOCs in Water 10 mL of H2O 2.5 ppb of ISO 17943 VOCs 3 g NaCl 2 min of equilibration @ 60 °C 100 µm PDMS traditional and Arrow 10 min of headspace extraction @ 60 °C w/ 500 rpm of heatex

VOCs in Water SPME Arrow (1.1 mm) Traditional SPME Benzene 2.00 3.00 4.00 5.00 6.00 7.00 8.00 9.00 10.00 2.60 2.80 3.00 3.20 3.40 3.60 3.80 4.00 4.20 4.40 4.60 4.80 Traditional SPME Benzene On average ^ 4 Fold for 92 VOCs

Response vs Extraction Time Goal: utilize the Arrow with shorter extraction times to achieve the same sensitivity as traditional SPME Evaluated traditional and Arrow for: 15, 30, 60, 120, 240, 480, 960, and 1920 s

1) Increased response. 2) Both equilibrate @ 120 s 3) 15 s extraction

Ruggedness/Lifetime Rack up a traditional fiber and Arrow Run 24 to 48 samples / day Same # of runs on each SPME Evaluate responses everyday First to 50% collection efficiency or a mechanical failure loses

A far too common outcome…

Real Ruggedness Example

SPME Methods ASTM D 6520, 2000 ASTM D 6889, 2003 EPA Method 8272, 2007 Standard Practice for the SPME of Water and its Headspace for the Analysis of Volatile and Semi-Volatile Organic Compounds ASTM D 6889, 2003 Standard Practice for Fast Screening for Volatile Organic Compounds in Water Using Solid Phase Microextraction (SPME) EPA Method 8272, 2007 Parent and Alkyl PAHs in Sediment Pore Water by SPME-GC/MS ISO 27108 (DIN 38407-34), 2013 Determination of selected plant treatment agents and biocide products - Method using SPME followed by GC-MS ISO 17943 (DIN 38407-41) Determination of VOCs in water - GC-MS after HS-SPME

ISO 17943 We evaluated 92 VOCs. ISO 17943 only list 63 VOCs. Calibration linearity, precision, and detection limits were obtained from: 10 mL of drinking water With only a 2 minute headspace extraction @ 60 °C With a 1 minute desorption @ 250 °C

ISO 17943 Calibration Precision MDLs All from a 2 minute extraction!!! 3 nines or better for most compounds at 2.5 ppt to 150 ppb Precision 3 % RSDs, which are well below method requirements MDLs ~30 ng/L All from a 2 minute extraction!!!

Implications SPME Arrow is more sensitive and sturdy than traditional SPME fibers Demonstrated excellent linearity, precision, and detection limits However, limited method applicability in the U.S.

SPME Arrow Application Fast screening!!! ASTM D 6889, 2003 Standard Practice for Fast Screening for Volatile Organic Compounds in Water Using Solid Phase Microextraction (SPME) A 2 minute extraction and 4 minute GC-MS screening run could prevent hours of purge-and-trap instrument down time from a hot sample

Thank You! Colton Myers Co-authors CTC Analytics AG