CIA Advantage-xr. Cryogen-free automated canister and whole-air sampling system

Similar documents
Application Note. Application Note 081 Innovative Cryogen-Free Ambient Air Monitoring in Compliance with US EPA Method TO-15. Abstract.

Application Note 116 Monitoring VOCs in Ambient Air Using Sorbent Tubes with Analysis by TD-GC/MS in Accordance with Chinese EPA Method HJ

Thermal Desorption Technical Support

TD-100. Automated thermal desorber. Universal TD system for up to 100 RFID-tagged or untagged tubes

INNOVATIVE PRODUCTS, SUPERIOR SUPPORT. Presenter: Anne Jurek, Senior Applications Chemist, EST Analytical

Determination of Volatile Organic Compounds in Air

Target Compound Results Summary

EPA TO-17 Volatile Organic Compounds

Maximizing Sample Throughput In Purge And Trap Analysis

Series 2 Air Server Automated canister and on-line air/gas analysis

Analysis of Low Level Volatile Organic Compounds in Air Anne Jurek

Analysis of Volatile Organic Compounds Using USEPA Method 8260 and the 4760 Purge and Trap and the 4100 Autosampler

Roger Bardsley, Applications Chemist; Teledyne Tekmar P a g e 1

The following report includes the data for the above referenced project for sample(s) received on 5/15/2017 at Air Toxics Ltd.

Optimal VOC Method Parameters for the StratUm PTC Purge & Trap Concentrator

US EPA Method with the Tekmar Lumin P&T Concentrator, AQUATek LVA and Agilent 7890B GC/5977A MS

Validation of USEPA Method Using a Stratum PTC and the New AQUATek 100 Autosampler

R.E.A.C.T. Roxbury Environmental Action CoaliTion P.O. Box 244 Ledgewood, N.J Website:

Methanol Extraction of high level soil samples by USEPA Method 8260C

Validation of USEPA Method Using a Stratum PTC, AQUATek 100 Autosampler, and Perkin-Elmer Clarus 600 GC/MS

Using Hydrogen as An Alternative Carrier Gas for US EPA 8260

US EPA Method 8260 with the Tekmar Atomx XYZ P&T System and Agilent 7890B GC/5977A MS

Detection of Volatile Organic Compounds in polluted air by an Agilent mini Thermal Desorber and an Agilent 5975T LTM GC/MS

Analysis. Introduction: necessary. presented. Discussion: As part of be carried. consistent and reliable data. (MoRT) to.

Roger Bardsley, Applications Chemist; Teledyne Tekmar Page 1

Solid Phase Micro Extraction of Flavor Compounds in Beer

AUTONOMOUS, REAL TIME DETECTION OF 58 VOCS IN THE PANAMA CANAL

CALA Directory of Laboratories

Series 2. Continuous monitoring of trace chemical vapours

U.S. EPA VOLATILE ORGANICS METHOD USING PURGE AND TRAP GC/MS

Analysis of Volatile Organic Compounds in Water and Soil by EPA Method 8260 with the Atomx Concentrator/Multimatrix Autosampler

A Comparison of Volatile Organic Compound Response When Using Nitrogen as a Purge Gas

HiSorb sorptive extraction

Performance of a Next Generation Vial Autosampler for the Analysis of VOCs in Water Matrices

Validation of Environmental Water Methods on One System: Considerations for Sample Volume, Purge Parameters and Quality Control Parameters

Centri. A breakthrough in sample automation and concentration for GC MS

Optimizing. Abstract: is standardd. procedures. altered to

Validation of USEPA Method 8260C Using Teledyne Tekmar Atomx, and Perkin-Elmer Clarus 600 GC/MS

Copyright 2009 PerkinElmer LAS and CARO Analytical Services, Inc.

Meeting NJ Low Level TO-15 Air Testing Method Requirements

System and JUREK ANNE. Introduction: in an in purge and. trap sampling. Discussion: As part of. consistent and reliable data. (MoRT) to.

SUMMARY REPORT OF AIR MONITORING FOR LEED CERTIFICATION PHASE 2 SWANSFIELD ELEMENTARY SCHOOL 5610 CEDAR LANE COLUMBIA, MD PREPARED FOR:

Ed George and Anaïs Viven Varian, Inc.

Exploring US EPA Method 524 Purge and Trap Variables: Water Vapor Reduction and Minimizing Cycle Time

A Single Calibration for Waters and Soil Samples Performing EPA Method Anne Jurek Applications Chemist

STANDARD OPERATING PROCEDURES

OREGON Environmental Laboratory Accreditation Program ORELAP Fields of Accreditation ALS Environmental - Simi Valley

Rapid Determination of TO-15 Volatile Organic Compounds (VOCs) in Air

Analysis of Volatile Organic Compounds in Soil Samples by EPA Method 8260 with The Stratum PTC and SOLATek 72 Multi-Matrix Autosampler

Optimizing of Volatile Organic Compound Determination by Static Headspace Sampling

2017 EPA Method Update Rule and EPA Method 624.1

Enhanced Preconcentrator for the Analysis of Vapor Phase Volatile Organic Compounds

Validation of Volatile Organic Compound by USEPA. Method 8260C. Application Note. Abstract. Introduction. Experimental-Instrument Conditions

Maximizing Production While Minimizing Costs

TO-17 Extending the Hydrocarbon Range above Naphthalene for Soil Vapor and Air Samples Using Automated

A Single Calibration Method for Water AND Soil Samples Performing EPA Method 8260

BIO-CHEM Laboratories, Inc. Work Order Sample Summary. CLIENT: CTRA Project: 6454 T Lab Order: A 6454 Aqueous 3/1/2013.

Innovative Thermal Desorption From Agilent Technologies. Vivek Dhyani Application Chemist

Method 8260C by Purge and Trap Gas Chromatography Mass Spectrometry using the Clarus SQ 8

Optimal Conditions for USEPA Method 8260B Analysis using the EST Analytical Sampling system and the Shimadzu GCMS-QP2010s

Analytical Trap Comparison for USEPA Method 8260C

Solid Phase Micro Extraction of Flavor Compounds in Beer

BIO-CHEM Laboratories, Inc. Work Order Sample Summary. CLIENT: Cascade Thornapple River Assoc. Project: Water Analysis Lab Order:

Solid Phase Microextraction of Cyanogen Chloride and Other Volatile Organic Compounds in Drinking Water with Fast Analysis by GC-TOFMS

Helium conservation in volatile organic compound analysis using U.S. EPA Method 8260C

ANALYTICAL REPORT. Results relate only to the items tested and the sample(s) as received by the laboratory. Page 1 of 5

CALA Directory of Laboratories

C146-E209. Headspace Samplers. HS-20 Series

Application News AD Quantitative Determination of Volatile Organic Compounds in Drinking Water by EPA Method with Headspace Trap GC-MS

ANALYTICAL REPORT. Job Number: Job Description: Transform Complete

Improved Volatiles Analysis Using Static Headspace, the Agilent 5977B GC/MSD, and a High-efficiency Source

Optimization of 1,4-Dioxane and Ethanol Detection Using USEPA Method 8260 Application Note

Application Note 032

Volatile Organic Compounds in Water PBM

National Pollutant Discharge Elimination System (NPDES); BADCT Limits for Volatile Organic Compounds

Optimizing Standard Preparation

Analysis of TO-15/TO-17 air toxics in urban air using TD GC/TOF MS and automated compound identification software

Electronic Supplementary Material Experimentally Validated Mathematical Model of Analyte Uptake by Permeation Passive Samplers

Vapor Intrusion Sampling Options: Performance Data for Canisters, Badges, and Sorbent Tubes for VOCs

F 2: Phase 2 Soil Vapor Investigation for Potential Off Site Vapor Intrusion

January 19, Dear Mr. Nightingale:

1. Introduction. 2. Sampling Activities

STONY HOLLOW LANDFILL, INC S. Gettysburg Ave. Dayton, OH (937) (937) Fax

Application Note. Abstract. Introduction. Experimental-Instrument Conditions. By: Anne Jurek

Series 2 UNITY A universal TD platform for tagged and untagged tubes

LIST OF METHODS IN THE SECOND EDITION OF THE COMPENDIUM OF METHODS FOR THE DETERMINATION OF TOXIC ORGANIC COMPOUNDS IN AMBIENT AIR

Headspace Technology for GC and GC/MS: Features, benefits & applications

Date: March 6, 2008 RWDI Reference #: W B Pages (Including Cover):

Copies: Dave Favero, RACER File

NIST gas standards containing volatile organic compounds in support of ambient air pollution measurements

Date Issued: April 01, 2013 Expiration Date: June 30, 2013

Measuring Environmental Volatile Organic Compounds by U.S. EPA Method 8260B with Headspace Trap GC/MS

McCAMPBELL ANALYTICAL INC Willow Pass Road Pittsburg CA

J. Li et al. Correspondence to: S. D. Xie

Thermal Desorption Technical Support

METHOD 5021 VOLATILE ORGANIC COMPOUNDS IN SOILS AND OTHER SOLID MATRICES USING EQUILIBRIUM HEADSPACE ANALYSIS

Optimization of Method Parameters for the Evaluation of USEPA Method Using a Purge and Trap with GC/MS

Air Monitoring Sorbent Pens. For Environmental and IH Applications

Method 1624 Revision C Volatile Organic Compounds by Isotope Dilution GCMS

Indoor Air Sampling and Forensic Analysis at Peter Cooper Village and Stuyvesant Town Properties October 2017

Transcription:

CIA Advantage-xr Cryogen-free automated canister and whole-air sampling system

CIA Advantage-xr Introducing the CIA Advantage-xr a cryogen-free system for the automated GC and GC MS analysis of trace-level volatile and semi-volatile organic compounds (VOCs and SVOCs) from canisters and whole-air samples. Since 1997, Markes International has pioneered many breakthroughs in analytical instrumentation, making it the world leader in thermal desorption. We now present the CIA Advantage-xr a multi-channel accessory that connects to the UNITY-xr, Markes manual thermal desorption instrument, offering robust, high-throughput, method-compliant analysis for both canister and tube samples. Like other instruments in Markes International s worldleading xr series, the UNITY CIA Advantage-xr offers: Extended re-collection Extended analyte range Extended reliability. Dry-Focus3 : Trouble-free sampling of humid air New Kori-xr water management enables simultaneous sampling of C 2 and polar VOCs. Efficient cryogen-free trapping Electrically-cooled focusing trap eliminates the cost of liquid nitrogen and ensures fast sample throughput. Quantitative sample splitting and re-collection Quantitative sample re collection of split flow enables repeat analysis of critical samples and method validation. Precise quantitative analysis Internal standard capability is compliant with international methods. Unparalleled analyte range Inert, optimised flow paths allow quantitative recovery of C 2 to C 44, including reactive and thermally labile species. Outstanding productivity Up to 27 samples at high and low concentrations can be analysed in one unattended sequence.

Innovative technology for maximum laboratory efficiency High-productivity canister analysis of ambient air CIA Advantage-xr allows high-sensitivity analysis of very volatile organic compounds (VVOCs), polar species and oxygenates in humid samples. How the UNITY CIA Advantage Kori-xr works CIA Advantage-xr systems offer key advantages for busy laboratories: 1 Air sampling and water removal with Dry-Focus3 Reduced running costs Dry-Focus3 and cryogen-free operation of the entire system overcomes the limitations of traditional liquidnitrogen-cooled technology for canister analysis, such as high costs and flow path blocking caused by ice formation. Increased number of samples per day Heated internal lines and efficient purging combine to eliminate carryover, resulting in a need for fewer blanks and boosting productivity. Canister or whole-air samples pass through the Kori-xr trap (where humidity is deposited as ice), before being focused on the trap of the UNITY-xr. This trap is then flushed to remove any residual water. Kori-xr Focusing trap Split/re-collection tube Tubes and traps can contain multiple sorbents, for analysis of an extended range of analytes. Minimal sample preparation Electronic sample splitting and the option of small-volume gas-loop sampling enhances compatibility with highconcentration samples, so removing the need for time-consuming sample preparation and eliminating introduction of external contaminants. High-throughput operation Addition of an optional CIA Satellite-xr module adds 13 more sampling channels, enabling automated, unattended analysis of up to 27 canisters. 2 Trap desorption, water purging, and outlet split The focusing trap is rapidly heated in a reverse flow of carrier gas, to transfer the analytes to the GC column. Simultaneously, the Kori-xr trap is heated in a flow of gas, expelling the trapped water. Carrier gas Kori-xr Focusing trap Split/re-collection tube To GC During trap desorption, the flow of analytes can be split and re collected onto a clean sorbent tube.

The perfect solution for canister analysis Full compliance with key standard methods The CIA Advantage-xr has been specifically designed for analysis of multiple canisters (and bags) used to monitor volatile organic hazardous air pollutants air toxics as specified in US EPA Method TO-15 and Chinese EPA Method HJ 759. The UNITY CIA Advantage-xr system has been proved to have: Outstanding system linearity: Analysis of air streams at up to 100% relative humidity (RH). Part-per-trillion-level method detection limits (MDLs): Compatible with trace-level TD GC MS analysis. Excellent reproducibility: Area and retention-time reproducibilities are well within mandated limits, for rapid data reviewing and reporting. TO-15 analysis of high-humidity air 1 Propene 2 Dichlorodifluoromethane 3 Dichlorotetrafluoroethane Abundance ( 10 6 counts) 1 0 1 0 1 0 100% RH 1 2 75% RH 50% RH 3 5 4 6 7 8 29 44 49 12 28 30 36 35 37 13 31 41 45 48 54 55 14 18 2326 32 34 39 46 15 19 24 27 38 40 43 33 47 16 21 42 9 20 11 17 22 25 10 0 5 10 15 20 25 30 35 40 Time (min) 50 51 52 53 56 57 59 58 60 Excellent peak shapes and interference-free monitoring of early-eluting polar compounds ( ) can be achieved using the UNITY CIA Advantage Kori-xr system, as shown by this analysis of a 65-component TO-15 mix at 50, 75 and 100% relative humidity. 61 62 64 63 65 4 Chloromethane 5 Vinyl chloride 6 Butadiene 7 Bromomethane 8 Chloroethane 9 Trichlorofluoromethane 10 Ethanol 11 Acrolein 12 1,1-Dichlorethene 13 1,1,2-Trichlorotrifluoroethane 14 Acetone 15 Isopropanol 16 Carbon disulfide 17 Dichloromethane 18 1,2-Dichloroethene 19 tert-butyl methyl ether 20 Hexane 21 1,1-Dichloroethane 22 Vinyl acetate 23 trans-1,2-dichloroethene 24 Methyl ethyl ketone 25 Ethyl acetate 26 Chloroform 27 Tetrahydrofuran 28 1,1,1-Trichloroethane 29 Cyclohexane 30 Tetrachloromethane 31 1,2-Dichloroethane 32 Benzene 33 Heptane 34 Trichloroethene 35 1,2-Dichloropropane 36 Methyl methacrylate 37 p-dioxane 38 Bromodichloromethane 39 cis-1,3-dichloropropene 40 4-Methylpentan-2-one 41 Toluene 42 trans-1,3-dichloropropene 43 1,1,2-Trichloroethane 44 Tetrachloroethene 45 Methyl n-butyl ketone 46 Chlorodibromomethane 47 1,2-Dibromoethane 48 Chlorobenzene 49 Ethylbenzene 50 m-xylene 51 p-xylene 52 o-xylene 53 Styrene 54 Tribromomethane 55 1,1,2,2-Tetrachloroethane 56 4-Ethyltoluene 57 1,3,5-Trimethylbenzene 58 1,2,4-Trimethylbenzene 59 1,2-Dichlorobenzene 60 1,4-Dichlorobenzene 61 Benzyl chloride 62 1,3-Dichlorobenzene 63 1,2,4-Trichlorobenzene 64 Hexachlorobutadiene 65 Naphthalene

Versatile modules for extended analytical capabilities Options for high- and low-concentration analysis Monitoring polar species in humid samples Two models of the CIA Advantage-xr are available Trace (T) and High/Low (HL): CIA Advantage T-xr A four-channel system dedicated to the analysis of trace-level components. CIA Advantage HL-xr A versatile 14-channel system for the analysis of both high- and low-concentration samples. Gas-loop sampling in addition to mass flow control makes this system ideal for screening unknowns and preventing system overload. Increased capacity The CIA Satellite-xr module adds 13 more sampling channels to both the T and HL models. When analysing humid air samples, it is necessary to remove the moisture before the gas flow reaches the GC column and detector, in order to avoid poor chromatography. However, certain ultra-volatile and polar species can be lost when using conventional water-management approaches such as a trap dry-purge or a Nafion dryer. Dry-Focus3 is a unique, triple-step focusing and water management mechanism that operates entirely without liquid cryogen. It leverages the Kori-xr option, also compatible with on-line air monitoring applications like PAMS, and a programmable trap dry-purge to selectively remove vapour-phase water prior to analyte focusing guaranteeing high-sensitivity, automated air analysis. Options for water management compared Analyte type Nafion dryer Trap set at 25 C Dry-Focus3 C 2 compounds Non-polar C 3 + Monoterpenes Polar VOCs Sulfur compounds Kori-xr was developed in collaboration with the National Centre for Atmospheric Science (NCAS) at the University of York. It was co-funded by the UK s innovation agency (Innovate UK), the Natural Environment Research Council (NERC) and the Welsh Government under the Knowledge Transfer Partnership program.

Options for enhanced method validation Internal standard addition The internal standard capability of the CIA Advantage-xr, included in all configurations, transfers a precise aliquot of the gaseous standard to the focusing trap prior to sampling. Options for method-compliant canister and tube analysis ULTRA-xr tube autosampler (optional) Fully method-compliant tube based analysis In addition to automated canister analysis, the CIA Advantage-xr has the ability to run sorbent tube analysis across a variety of application areas, in compliance with standard methods such as US EPA Method TO-17. Sorbent tubes extend the airborne analyte range beyond the limitations of canisters and other whole-air containers, to include critical semi-volatile pollutants such as PAHs, phthalates, chemical agents and PCBs. They also facilitate the complete recovery of compounds up to n-c 44. Automated sample re-collection Adding an ULTRA-xr to the UNITY CIA Advantage-xr is possible at any time due to the modular nature of all Markes systems. This upgrade facilitates automated analysis of up to 100 sorbent tubes, as well as automated sample re collection from sorbent tubes and canisters. CIA Advantage-xr canister autosampler Stream selection Up to 27 canisters 0.5 ml loop MFC Internal standard Kori-xr water condenser Key Water condenses Water then purged Main flowpath Optional flowpath Sampling flow Desorption flow Automated tube options No user intervention required to switch between canisters and tubes Tube desorb Automated sample re-collection Split (to vent or re-collection tube) Focusing trap UNITY-xr thermal desorber GC & detector The modular nature of CIA Advantage-xr systems means that options for tube analysis and sample re-collection are easily configured complementing the capability for addition of internal standards inherent to every instrument.

Markes Instrument Control Easy-to-use software for the new xr series Unmatched product range A comprehensive range of sorbent tubes and sampling accessories for every TD application Micro-Chamber/Thermal Extractor for fast and flexible sampling of chemicals and odours released from materials and foods. ACTI-VOC pump optimised for sorbent tube sampling. MTS-32 for pumped sequential sampling onto multiple tubes. The new software used to control the CIA Advantage-xr and the other members of the xr series offers the following features for enhanced laboratory productivity: Automated, unattended sequencing of tube and on-line samples. Editing of active sequences, for greater flexibility and ease of use. Easy-VOC for simple, rapid grab-sampling of air/gas. VOC-Mole for soil gas sampling. Rapid set-up of TD methods using pre-programmed parameters for standard methods including VDA 278, US EPA TO 17 and PAH analysis. Pre-loading of an internal standard on a tube or trap, for enhanced quantitation. System self-checking, for improved diagnostics. TubeTAG RFID tags for ultimate tube traceability and quality assurance. Sample tubes Stainless steel, glass or inert-coated, individually barcoded and with single- or multi-bed sorbents for maximum application versatility. Brass storage caps for ultimate sample integrity. DiffLok caps for tubes on autosampler. Diffusion caps for passive sampling.

Markes International The TD experts World-leading instruments and unmatched expertise in VOC and SVOC monitoring Markes International has for 20 years been at the forefront of innovation for enhancing the measurement of trace-level VOCs and SVOCs by thermal desorption gas chromatography. Our suite of instruments for thermal desorption sets the benchmark for quality and reliability: TD100-xr High-throughput 100-tube automated thermal desorber. UNITY-xr Single-tube thermal desorber featuring sample re-collection of all split flows. UNITY Air Server-xr Versatile on-line VOC monitoring system. ULTRA-xr High-throughput 100-tube autosampler for UNITY-xr. TT24-7 Twin-trap instrument for near-real-time on-line monitoring. TC-20 & TC-20 TAG Cost-effective systems for off-line multi-tube conditioning and dry-purging. Micro-Chamber/Thermal Extractor Unique sampling device for emissions of VOCs and SVOCs from products and materials. L-0090 (250817-4) Product names used with the symbol are trademarks of Markes International, except Nafion, which is a trademark of the Chemours Company. Markes International UK: Gwaun Elai Medi-Science Campus, Llantrisant, RCT, CF72 8XL T: +44 (0)1443 230935 US: 2355 Gold Meadow Way, Gold River, Sacramento, California 95670 T: 866-483-5684 (toll-free) Germany: Schleussnerstrasse 42, D-63263 Neu-Isenburg, Frankfurt T: +49 (0)6102 8825569 E: enquiries@markes.com W: www.markes.com