Teledyne Instruments - Tekmar
Have questions? Need help?
513.229.7000 | 800.874.2004
Have questions? Need help?  Give us a call.
 

Solutions
Environmental
Food and Beverage
Forensics
Petrochemical
Pharmaceutical
Plastics
 
News and Events
News Room
Seminars
Training Courses
Webinars
Trade Shows
Career Opportunities
 
Help Center
Customer Support
Software Downloads
ISO 9001:2000
Privacy Policy
Terms of Use
P. O. Terms & Conditions
Terms & Conditions
Archives-Terms & Conditions
Site Map
 
Print this page Print this page
Email this page Email this page

  Environmental Solutions
Helping You Keep It Clean
 

Teledyne Tekmar has been the market leader in environmental and drinking water testing for decades, having invented many of the instrumental technologies used in today’s lab.  From TOC drinking water analysis to EPA compendium methods for air, soil and water, Tekmar has the right instrument for your application.

TOC has a long history as being a world-renowned analytical technique to measure water quality during the drinking water purification process. TOC in source waters comes from decaying natural organic matter (NOM) and from synthetic sources. Humic acid, fulvic acid, amines, and urea are types of NOM. Detergents, pesticides, fertilizers, herbicides, industrial chemicals, and chlorinated organics are examples of synthetic sources. Before source water is treated for disinfection, TOC provides an important role in quantifying the amount of NOM in the water source. In water treatment facilities, source water is subject to reaction with chloride containing disinfectants. When the raw water is chlorinated, active chlorine compounds (Cl2, HOCl, ClO-) react with NOM to produce chlorinated disinfection byproducts (DBPs). Many researchers have determined that higher levels of NOM in source water during the disinfection process will increase the amount of carcinogens in the processed drinking water. In the 1970’s TOC analysis emerged as a rapid and accurate alternative to the classical but lengthy biological oxygen demand (BOD) and chemical oxygen demand (COD) tests traditionally reserved for assessing the pollution potential of wastewaters. Today, Environmental Protection Agencies regulate the trace limits of DBPs in drinking water. Recent methods, such as USEPA method 415.3, D/DBP rule, regulate the amount of NOM to prevent the formation of DBPs in finished waters.

Products ......................................................................................................................................................
   


The Atomx VOC Sample Prep System combines an Autosampler and Purge and Trap into a single instrument for the analysis of VOCs in soils and waters. This is the first of its kind and only system that employs a unique methanol extraction automation feature for high level soils.
Click here for more information on the HT3 Click here for more information on the Atomx VOC Sample Prep System
 


The Torch TOC Combustion Analyzer contains a built in autosampler with three vial rack choices and PC driven control. The Torch has a calibration and Intellidilution feature which automatically dilutes over-range samples to within the working calibration range.
Click here for more information on the HT3 Click here for more information on the Torch TOC Combustion Analyzer
 


The Fusion utilizes a patent pending process for detection with a NDIR known as Static Pressurization Concentration (SPC) which greatly improves the accuracy and precision required for this demanding technique.
Click here for more information on the HT3 Click here for more information on the Fusion
 


The Stratum PTC is built on years of research and innovation to make it the most advanced Purge and Trap Concentrator on the market demonstrated by its increased lot consistency, decreased water retention and unique trap that provides unparallel performance.
Click here for more information on the HT3 Click here for more information on the Stratum
 
The HT3 Static and Dynamic Headspace Analyzer

The Tekmar HT3™ Static and Dynamic Headspace Analyzer has the highest sensitivity of any product on the market used for headspace analysis of soils and solids.
Click here for more information on the HT3 Click here for more information on the HT3
 
SOLATek 72 Multi-Matrix Vial Autosampler
Our SOLATek 72 Multi-Matrix Vial Autosampler automates sample preparation for volatile organic analysis in water and soil samples and is ideal for drinking water, wastewater, sludges, solids, flavor, fragrance, and off-odor analyses.
Click here for more information on the AUTOCan 12 Click here for more information on the SOLATek 72
 
AQUATek 70 Liquid Autosampler
The AQUATek 70 Liquid Autosampler handles drinking water and wastewater samples of all types including particulate-laden samples, with the highest throughput available on the market.
Click here for more information on the AUTOCan 12 Click here for more information on the AQUATek 70
 
AQUATek 70 Liquid Autosampler
Productivity in environmental laboratories is improved with the Archon Purge and Trap Autosampler. The Archon features combine to provide the ultimate solution for water and soil VOC analyses.
Click here for more information on the AUTOCan 12 Click here for more information on the Archon Purge & Trap Autosampler
   
RELATED APPLICATIONS
EPA Methods
Drinking Water Analysis
Related Application Notes .......................................................................................................................................................................................
Title
Instrument
Application
NEW! Evaluating USEPA Method 524.3 Utilizing Newly Permissible Method Modifications to Purge and Trap Techniques
VOC
Automated Handling Techniques for the Analysis of Elevated Volatile Organic Compound (VOC) Concentrations in Soils Utilizing the Atomx Concentrator/Multimatrix Autosampler
VOC
Analysis of 1,4-Dioxane Using the Stratum PTC and the SOLATek 72 Stratum, Solatek VOC
Analysis of Volatile Organic Compounds in Water and Soil by EPA Method 8260 with the Atomx Concentrator/Multimatrix Autosampler
VOC
The Effects of Furnace Configuration Using The Torch High Temperature Combustion Analyzer
TOC
Optimization Techniques for Performance of USEPA Methods 5030, 5035, and Determinative Methods 524.2 and 8260 utilizing the Atomx Concentrator/Multimatrix Autosampler and an Agilent 7890A GC and 5975 inert XL MSD
VOC
Requirements of an Automated Sample Delivery System in Today’s Realm of Ever Increasing Sensitivity Demands Utilizing the Atomx Concentrator/Multimatrix Autosampler
VOC
Automated Handling Techniques for the Analysis of Elevated Volatile Organic Compound (VOC) Concentrations in Soils Utilizing the Atomx Concentrator/Multimatrix Autosampler
VOC
A Comparative Analysis of Fuel Oxygenates in Soil by Dynamic and Static Headspace Utilizing the HT3TM Automatic Headspace Analyzer
VOC
Analysis of Volatile Organic Compounds in Soil Samples by EPA Method 8260 with the Stratum PTC and SOLATek 72 Multi-Matrix Autosampler
VOC
Analytical Trap Choices for Stratum PTC and Velocity XPT Purge and Trap Concentrators.
VOC
Analysis of Volatile Organic Compounds in Water by EPA Method 8260 with The Stratum PTC and Solatek 72 Multimatrix Autosampler
TOC
Evaluation of EPA Method TO-15 with AUTOCan-12 Cryo-Free Internal Trap Whole Air Autosampler/Concentrator
Whole Air
A Method for Accurate Total Organic Carbon (TOC) Sample Analysis in Ground/Drinking-Water Samples With High Inorganic Carbon (IC) Levels
TOC
Analytical Steps to Comply with the USEPA's New 415.3 Method for Total Organic Carbon (TOC) Analysis
TOC
Summary of the New USEPA 415.3 Method for Total Organic Carbon (TOC) Analysis
TOC
Benefits of Nitrogen Monitoring by High Temperature Combustion (HTC)
TOC
TOC Analysis Correlation With Other Environmental Parameters
--
TOC
New Method for Analyzing Fuel Oxygenates by Headspace Sampling
Static and Dynamic Headspace
Valveless Sample Handling System for a Benchtop TOC Analyzer
TOC
Evaluation of EPA Method TO-15 and Ozone Precursors (PAMS) with the Teledyne Tekmar AUTOCan Whole Air Autosampler
Whole Air
Prevent Damage to Your Purge and Trap by Pre-Screening with Static Headspace
Static and Dynamic Headspace
Evaluation of a New Purge and Trap On-line Interface for the Real-Time Analysis of VOCs in Aqueous Streams
Purge and Trap
Analysis of Fuel Oxygenates in Water by Purge and Trap
Purge and Trap
Performance of a Next Generation Vial Autosampler for the Analysis of VOCs in Water Matrices
Purge and Trap
Analysis of Polar and Non-Polar VOCs From Ambient and Source Matrices: Development of a New Canister Autosampler Which Meets TO-15 QA/QC Criteria
Whole Air
Preparation of Gas Phase Standards for Ambient Air Analysis
Whole Air
Concentration of Air Toxics from SUMMA Canisters on a Solid Sorbent Trap
Whole Air
Introduction to Air Toxics Analyses
Whole Air
Performance of SOLATek 72 Multi-Matrix Vial Autosampler for Analysis of VOCs
Purge and Trap
Evaluation of Residual Solvents and Organic Volatile Impurities (OVIs) Using Purge and Trap
Purge and Trap
Evaluation of the High Dilution Capabilities of the SOLATek 72 Multi-Matrix Vial Autosampler
Purge and Trap
Benefits of Nitrogen Monitoring by High Temperature Combustion (HTC)
TN, TOC
Measuring Carbon in Salty Waters
TOC
TOC Analysis: Acid Preservation Debate
TOC
TOC as a Precursor to DBPs: Oxidation Technique Considerations
TOC
USEPA Method 415.1: (Combustion or Oxidation) Total Organic Carbon
TOC
TOC Analysis of Humic Acid: Sample Preparation is the Key
TOC
Selection of a TOC Analyzer: Analytical Considerations
TOC
Analysis of 524.2 Compounds Utilizing a Split Inlet
3100
Purge and Trap
Comparative Analysis of Tekmar 3000 and 3100 Purge and Trap Sample Concentrators: Performance Evaluation Between Electroform Nickel and Silcosteel-coated Sample Pathways
3100
Purge and Trap
Effects of Purge and Trap Injection Techniques on Chromatography Peak Shape and Sensitivity
3100
Purge and Trap
Fundamentals of Purge and Trap
3100
Purge and Trap
Low-level Analysis of 524.2 Using a 3000 Purge and Trap and Varian Direct Split Interface
3100
Purge and Trap
Methylmercury in Water
3100
Purge and Trap
Optimization of Method Parameters for the Evaluation of USEPA Method 524.2 Using a Purge and Trap with GC/MS
3100
Purge and Trap
Analysis of BTEX Compounds by USEPA Method 5021/8020 Using Static Headspace
7000
Static Headspace
Benefits and Limitations of Static Headspace and Purge and Trap for the Analysis of VOCs
7000, 3100
Purge and Trap, Static Headspace
Rapid Screening of Volatile Organics by Headspace
7000
Static Headspace

ISO 9001:2000 | Privacy | Terms of Use | Site Map

Teledyne Tekmar 4736 Socialville Foster Road, Mason, Ohio 45040
[p] 800.874.2004 | tekmarinfo@teledynetekmar.com | [f] 513.229.7050

Copyright © 2010 Teledyne Technologies Incorporated. All rights reserved.