Kaasukromatografiset analysaattorit

Model 4003
Muuntajaöljyn analysaattorit

Transformers are often one of the most substantial capital assets of an operation. Measuring levels of light gases found in an electrical transformer’s insulating oil is an effective way to monitor the health of the transformer, and identify potential problems before they begin to limit productivity. PerkinElmer offers three models of Transformer Oil Gas Analyzers (TOGA), designed to analyze trace levels of H2, CO, CO2, ethylene, ethane, acetylene, methane, and air components. PerkinElmer’s TOGA offerings can aid you in achieving your risk mitigation goals, while also ensuring long term productivity of your transformers by identifying potential maintenance and wear issues, before they cause an operational disruption.

Model 4003 facilitates the analysis of transformer oil gases in support of ASTM D3612-02, Method A, utilizing a dual-channel flame ionization and thermal conductivity detector (FID/TCD). The purged sampling-valve housing and passivated tubing ensures less sample absorption, while the injection port and gas sampling valve offer flexibility for the introduction of various sample types. A high capacity methanizer for maximum CO and CO2 conversion is featured on this instrument to ensure productivity and accuracy of each analysis. Detection limits on the TCD channel are 1 ppm for H2 and 500 ppm for oxygen and nitrogen, and the FID channel offers a detection limit of 2 for acetylene, and 1ppm for carbon dioxide, carbon monoxide, methane, ethane and ethylene.

Model 4087 facilitates the analysis of headspace gases from transformer oil in support of ASTM D3612-02, Method C, utilizing a dual-channel flame ionization and thermal conductivity detector (FID/TCD). This model couples the PerkinElmer Clarus® 590 with the TurboMatrix Headspace Sampler and shaker (either the 40 or 110 position sampler can be used). The purged sampling-valve housing and passivated tubing ensures less sample absorption, while the injection port and gas sampling valve offer flexibility for the introduction of various sample types. A high capacity methanizer for maximum CO and CO2 conversion is featured on this instrument to ensure productivity and accuracy of each analysis. Detection limits on the TCD channel are 1 ppm for hydrogen and 500 ppm for oxygen and nitrogen, and the FID channel offers a detection limit of 1ppm for carbon dioxide, carbon monoxide, methane, ethane, ethylene and acetylene.

Model 4087 facilitates the analysis of headspace gases from transformer oil in support of ASTM D3612-02, Method C, utilizing a dual-channel flame ionization and thermal conductivity detector (FID/TCD). This model couples the PerkinElmer Clarus® 690 with the TurboMatrix Headspace Sampler and shaker (either the 40 or 110 position sampler can be used). The purged sampling-valve housing and passivated tubing ensures less sample absorption, while the injection port and gas sampling valve offer flexibility for the introduction of various sample types. A high capacity methanizer for maximum CO and CO2 conversion is featured on this instrument to ensure productivity and accuracy of each analysis. Detection limits on the TCD channel are 1 ppm for hydrogen and 500 ppm for oxygen and nitrogen, and the FID channel offers a detection limit of 1ppm for carbon dioxide, carbon monoxide, methane, ethane, ethylene and acetylene.

 

 

Model 3023
Petrokemian SimDist kaasukromatografit

Simulated Distillation (SimDist) is a gas chromatographic method designed to simulate the actual physical distillation and true boiling point distribution of petroleum raw materials and products. Effectively utilizing SimDist can save refinery operations considerable time and money historically spent on labor intensive manual distillation activities. PerkinElmer offers analyzers to perform ASTM SimDist methods, utilizing our industry leading Claus® gas chromatograph instrument. Our turn-key simulated distillation solution pairs our analyzer with PerkinElmer’s Dragon SimDist© software, providing the efficient and accurate calculations needed to make operational and quality decisions at refineries.

Model 3023x (NARL 6413) is based on the Clarus® 690 gas chromatograph, and utilizes hydrogen carrier gas to perform simulated distillation analysis in support of ASTM D7169. The model utilizes hydrogen carrier gas and a modified temperature ramp to reduce analysis times from 30 to 18 minutes. The rapid cooling oven in this instrument minimizes time between injections and improves overall lab productivity. A single flame ionization detector (FID) with non-polar packed or thin film capillary columns. Utilizing the Simulated Distillation Software, a chromatographic run representing the hydrocarbon sample is sectioned into uniform area slices using integration parameters set in a TotalChrom® method. Boiling temperatures are assigned to a time axis using a calibration standard. The software constructs a calibration curve using the boiling point data. From this information, Percent-Off versus Boiling Point can be calculated and displayed in tabular form or graphs.

PerkinElmer’s Dragon SimDist software is a reporting package designed with the petroleum chemist in mind. Developed by chromatographers with over 40 combined years in simulated distillation analysis and method development, PerkinElmer Dragon SimDist software provides a powerful interactive and post-run solution for the needs of today’s laboratory. Calculations are performed in accordance with ASTM, IP, DIN, ISO, and customized methods covering the boiling range of gasoline, jet/diesel, lubricants, biodiesel, crude, and residual sample types.  Data can be reported in ASCII text file (.TXT) or comma delimited text (.CSV) formats. Major features of the software page include:

  • Real-time recalculation
  • ASTM default and user defined custom settings
  • Intelligent calibration table generation
  • Multiple solvent and artifact  exclusion capabilities
  • D86 and D1160 correlation feature
  • Standalone or automated processing
  • Binary images of the blank, sample, calibration, external standard, and report are stored in the saved SDF result file
  • Set Custom % off Distillation Reports
  • Custom Cut-Point Reporting
  • Custom QC Reporting
  • Link to Additional Applications upon Completion
  • Send Report Files via Email
  • Customize Reference Oil Lots
  • Customize Boiling Point Libraries
  • Calculation of D56, D93, and D3828 Flash Point per ASTM D7215-08
  • Automatic D86 and D1160 Correlation Report Options, With User-Defined D86 and D1160 Correlations That Can Be Made Based on Sample Specific Analysis Data

PerkinElmer’s Dragon SimDist includes all methods and modes of simulated distillation analyses, including:

  • ASTM D2887 – Standard Test Method for Boiling Range Determination of Petroleum Fractions by GC
  • External Standard Methods such as ASTM D7169 High Temp SimDis
  • Methods to analyze light hydrocarbon mixtures such as ASTM D3710 and ASTM D7096 (samples with oxygenates)
  • Methods to analyze heavy hydrocarbon mixtures such as ASTM D7213, ASTM D6352, and ASTM D7500.
  • ASTM D7398 FAME (Biodiesels)
  • ASTM D5399 for hydrocarbon solvents
  • Customized and Fast Simdis applications
  • High Temperature SimDist D7169
  • D7169 High Temp SimDist

Model 3023x (NARL 6412) is based on the Clarus® 690 gas chromatograph, and utilizes hydrogen carrier gas to perform simulated distillation analysis in support of ASTM D6352. The model utilizes hydrogen carrier gas and a modified temperature ramp to reduce analysis times from 30 to 18 minutes. The rapid cooling oven in this instrument minimizes time between injections and improves overall lab productivity. A single flame ionization detector (FID) with non-polar packed or thin film capillary columns. Utilizing the Simulated Distillation Software, a chromatographic run representing the hydrocarbon sample is sectioned into uniform area slices using integration parameters set in a TotalChrom® method. Boiling temperatures are assigned to a time axis using a calibration standard. The software constructs a calibration curve using the boiling point data. From this information, Percent-Off versus Boiling Point can be calculated and displayed in tabular form or graphs.

Model 3023x (NARL 6411) is based on the Clarus® 690 gas chromatograph, and utilizes hydrogen carrier gas to perform simulated distillation analysis in support of ASTM D2887. The model utilizes hydrogen carrier gas and a modified temperature ramp to reduce analysis times from 30 to 18 minutes. The rapid cooling oven in this instrument minimizes time between injections and improves overall lab productivity. A single flame ionization detector (FID) with non-polar packed or thin film capillary columns. Utilizing the Simulated Distillation Software, a chromatographic run representing the hydrocarbon sample is sectioned into uniform area slices using integration parameters set in a TotalChrom® method. Boiling temperatures are assigned to a time axis using a calibration standard. The software constructs a calibration curve using the boiling point data. From this information, Percent-Off versus Boiling Point can be calculated and displayed in tabular form or graphs.

Model 3023 (NARL 6403) is based on the Clarus® 690 gas chromatograph, and utilizes helium carrier gas to perform simulated distillation analysis in support of ASTM D7169. The rapid cooling oven in this instrument minimizes time between injections and improves overall lab productivity. A single flame ionization detector (FID) with non-polar packed or thin film capillary columns. Utilizing the Simulated Distillation Software, a chromatographic run representing the hydrocarbon sample is sectioned into uniform area slices using integration parameters set in a TotalChrom® method. Boiling temperatures are assigned to a time axis using a calibration standard. The software constructs a calibration curve using the boiling point data. From this information, Percent-Off versus Boiling Point can be calculated and displayed in tabular form or graphs.

Model 3023 (NARL 6402) is based on the Clarus® 690 gas chromatograph, and utilizes helium carrier gas to perform simulated distillation analysis in support of ASTM D6352. The rapid cooling oven in this instrument minimizes time between injections and improves overall lab productivity. A single flame ionization detector (FID) with non-polar packed or thin film capillary columns. Utilizing the Simulated Distillation Software, a chromatographic run representing the hydrocarbon sample is sectioned into uniform area slices using integration parameters set in a TotalChrom® method. Boiling temperatures are assigned to a time axis using a calibration standard. The software constructs a calibration curve using the boiling point data. From this information, Percent-Off versus Boiling Point can be calculated and displayed in tabular form or graphs.

Model 3023 (NARL 6401) is based on the Clarus® 690 gas chromatograph, and utilizes helium carrier gas to perform simulated distillation analysis in support of ASTM D2887. The rapid cooling oven in this instrument minimizes time between injections and improves overall lab productivity. A single flame ionization detector (FID) with non-polar packed or thin film capillary columns. Utilizing the Simulated Distillation Software, a chromatographic run representing the hydrocarbon sample is sectioned into uniform area slices using integration parameters set in a TotalChrom® method. Boiling temperatures are assigned to a time axis using a calibration standard. The software constructs a calibration curve using the boiling point data. From this information, Percent-Off versus Boiling Point can be calculated and displayed in tabular form or graphs.

Model 3023 (NARL 8401) is based on the Clarus 590 gas chromatograph, and utilizes helium carrier gas to perform simulated distillation analysis in support of ASTM D2887. A single flame ionization detector (FID) with non-polar packed or thin film capillary columns. Utilizing the Simulated Distillation Software, a chromatographic run representing the hydrocarbon sample is sectioned into uniform area slices using integration parameters set in a TotalChrom method. Boiling temperatures are assigned to a time axis using a calibration standard. The software constructs a calibration curve using the boiling point data. From this information, Percent-Off versus Boiling Point can be calculated and displayed in tabular form or graphs.

Model 3023 (NARL 8402) is based on the Clarus 590 gas chromatograph, and utilizes helium carrier gas to perform simulated distillation analysis in support of ASTM D6352. A single flame ionization detector (FID) with non-polar packed or thin film capillary columns. Utilizing the Simulated Distillation Software, a chromatographic run representing the hydrocarbon sample is sectioned into uniform area slices using integration parameters set in a TotalChrom method. Boiling temperatures are assigned to a time axis using a calibration standard. The software constructs a calibration curve using the boiling point data. From this information, Percent-Off versus Boiling Point can be calculated and displayed in tabular form or graphs.

Model 3023 (NARL 8403) is based on the Clarus 590 gas chromatograph, and utilizes helium carrier gas to perform simulated distillation analysis in support of ASTM D7169. A single flame ionization detector (FID) with non-polar packed or thin film capillary columns. Utilizing the Simulated Distillation Software, a chromatographic run representing the hydrocarbon sample is sectioned into uniform area slices using integration parameters set in a TotalChrom method. Boiling temperatures are assigned to a time axis using a calibration standard. The software constructs a calibration curve using the boiling point data. From this information, Percent-Off versus Boiling Point can be calculated and displayed in tabular form or graphs.

Model 3023 (NARL 8406) is based on the Clarus 590 gas chromatograph, and utilizes helium carrier gas to perform simulated distillation analysis in support of ASTM D7500. A single flame ionization detector (FID) with non-polar packed or thin film capillary columns. Utilizing the Simulated Distillation Software, a chromatographic run representing the hydrocarbon sample is sectioned into uniform area slices using integration parameters set in a TotalChrom method. Boiling temperatures are assigned to a time axis using a calibration standard. The software constructs a calibration curve using the boiling point data. From this information, Percent-Off versus Boiling Point can be calculated and displayed in tabular form or graphs.

Model 3023 (NARL 6416) is based on the Clarus 690 gas chromatograph, and utilizes helium carrier gas to perform simulated distillation analysis in support of ASTM D7500. modified temperature ramp to reduce analysis times from 30 to 18 minutes. The rapid cooling oven in this instrument minimizes time between injections and improves overall lab productivity. A single flame ionization detector (FID) with non-polar packed or thin film capillary columns. Utilizing the Simulated Distillation Software, a chromatographic run representing the hydrocarbon sample is sectioned into uniform area slices using integration parameters set in a TotalChrom method. Boiling temperatures are assigned to a time axis using a calibration standard. The software constructs a calibration curve using the boiling point data. From this information, Percent-Off versus Boiling Point can be calculated and displayed in tabular form or graphs.

Model 4060
DHA jalostamon kaasukromatografi analysaattorit

Understanding crude oil composition during refining and production is essential to ensuring quality, safety and adherence to regulatory requirements. Detailed Hydrocarbon Analysis (DHA) is a gas chromatography technique for characterizing crude oil, and analyzing multiple fuel types containing hundreds or even thousands of compounds. PerkinElmer’s DHA systems are designed without costly valves or hardware components, such as traps, that require maintenance, replacement and increase total cost of ownership. To further boost productivity within your lab, our single-column solution for DHA analysis includes a high-resolution capillary column and tuned pre-column to separate individual compounds present in gasoline.

Model 4060 provides a complete detailed hydrocarbon analysis of the light end fraction of stabilized crude oil. Utilizing a specialized sample introduction system consisting of a programmable split/splitless inlet combined with a precolumn, Swafer™ microchannel flow technology and a high-resolution capillary column, Model 4060 enables the analysis of a selected fraction of wide boiling range liquid samples. Our analyzer produces a modified ASTM D-6730 report, identifying individual analytes and reporting their concentrations, as well as the boiling point which can then be plotted to form boiling point distribution curves similar to Simulated Distillation reports. This data can then be used to combine front end Detailed Hydrocarbon Analysis data (DHA – ASTM D7900/IP 601) with High Temperature Simulated Distillation data (ASTM D7169/IP 545) using PKI Dragon MergeIT SW.

Model 4050x for the PerkinElmer Clarus 690 uses hydrogen carrier gas as opposed to helium to provide optimized efficiency with a 90 minute run time. Utilizing a convenient graphical interface, the pre-loaded PKI Dragon DHA® software provides a one-screen display to visualize the chromatogram and review data calculations to obtain optimum results for analysis and data presentation. Model 4050x meets the requirements of ASTM Methods D5134, D6729, D6730 and D6733, and features tools for fast peak identification, as well as an “unknowns” tab listing unidentified peaks in order of concentration for efficient manual identification.

Model 4050 for the PerkinElmer Clarus 690 provides a complete analysis of gasoline range petroleum products through high-efficiency gas chromatography. Utilizing a convenient graphical interface, the pre-loaded PKI Dragon DHA® software provides a one-screen display to visualize the chromatogram and review data calculations to obtain optimum results for analysis and data presentation. Model 4050 utilizes helium as the carrier gas, and meets the requirements of ASTM Methods D5134, D6729, D6730 and D6733. Featuring tools for fast peak identification, Model 4050 uses an “unknowns” tab listing of unidentified chromatographic peaks in order of concentration for efficient manual identification.

Model 4080
Polttoaineiden hapettuneiden ja aromaattisten yhdisteiden analysaattori

Understanding the composition of finished gasoline is paramount to ensure that a safe and quality petroleum product is delivered to downstream oil and gas customers. PerkinElmer’s portfolio of oxygenate and aromatic analyzers are engineered specifically to meet the needs of customers producing finished gasoline products. Our analyzers can be used to determine ether and alcohol additives in finished gasoline products, as well as benzene, toluene, ethylbenzene and other aromatics as required. Trace methanol, acetaldehyde, MTBE, acetone, 2-propanol can also be analyzed in some models. Once installed, samples can be processed immediately, allowing you to optimize instrument up-time and productivity from day one.

Featuring a capillary injection port, a pressure switched (PreVent) “heart cut” instrument configuration and three capillary columns, Model 4080 utilizes a PerkinElmer Clarus® 690 GC, and offers total flexibility to analyze for any oxygenate or aromatic compound found in gasoline. The same sample can be run twice with different “heart cut” times, and by spreading the components into two analyses, the interferences found with a large number of components are eliminated. Model 4080 meets the requirements set forth in EN 12177, EN 13132 and IP 425/96 with guaranteed detection levels of benzene at 0.05 – 6%, 0/17% – 15% for individual organic oxygenate compounds, and up to 3.7% for total organically bound oxygen.

Engineered to perform ASTM method D4815 for ether and alcohol additives analysis in finished gasoline, Model 4001 is equipped with a thermal conductivity detector (TCD), and can achieve minimum detection percentages of 0.1% for MTBE, DIPE, ETBE and TAME. Methanol, ethanol, isopropanol, tert-butanol, n-propanol, sec-butanol, isobutanol, tert-pentanol, n-butanol, benzene and other heavy hydrocarbons can be detected at a minimum of 0.1%, and a maximum detection level of 12%.

Engineered to perform ASTM Method D4815 for ether and alcohol additives analysis in finished gasoline, Model 4002 features a flame ionization detector (FID) and can achieve minimum detection percentages of 0.1% for MTBE, DIPE, ETBE and TAME. Methanol, ethanol, isopropanol, tert-butanol, n-propanol, sec-butanol, isobutanol, tert-pentanol, n-butanol, benzene and other heavy hydrocarbons can be detected at a minimum of 0.1%, and a maximum detection level of 12%.

Model 4015 combines solutions for ASTM D4815, D5580 and D3606 (Modified for oxygenated fuels) for the determination ether and alcohol additives, as well as benzene, toluene, ethylbenzene and other aromatics in finished gasoline samples. Bundling the capabilities of Models 4002, 4005 and 4014, Model 4015 if a robust and flexible system designed to maximize productivity and operational efficiency.

Model 4012 provides solutions for users analyzing samples for ASTM 4815 and D3606 (Modified for oxygenated fuels). The pre-configured system can perform analyses for ether and alcohol additives, as well as benzene and toluene in finished gasoline samples. Meeting the requirements of ASTM D3606 relating to internal standard and column changes when performing benzene-ethanol separations, Model 4012 ensures compliance with regulations without sacrificing performance or throughput. Detection levels of ASTM 3606 are: 0.1 – 20% for benzene and 0.1 – 12% for toluene. Detection levels for ASTM D4815 are 0.1 % – 20% for MTBE, DIPE, ETBE and TAME, and 0.1% – 12% for Methanol, ethanol, isopropanol, tert-butanol, n-propanol, sec-butanol, isobutanol, tert-pentanol, n-butanol, benzene, and heavy hydrocarbons.

Model 4004 meets the needs of users analyzing samples by ASTM D4815 and D5580. The methods can be run sequentially utilizing the same column system for both methods, allowing for greater efficiency and lab productivity. Detection is available for the following compounds with minimum and maximum detection levels noted: Methanol (0.1% – 12%), ethanol (0.1% – 12%), isopropanol (0.1% – 12%), tert-butanol (0.1% – 12%), n-propanol (0.1% – 12%), MTBE (0.1% – 20%), sec-butanol (0.1% – 12%), DIPE (0.1% – 20%), isobutanol (0.1% – 12%), ETBE (0.1% – 20%), tert-pentanol (0.1% – 12%), n-butanol (0.1% – 12%), benzene (0.1% – 12%), TAME (0.1% – 20%), heavy hydrocarbons (0.1% – 12%), Benzene (0.1% – 5%), toluene (0.1% – 5%), ethylbenzene, p/m-xylene(0.1% – 12%), o-xylene(0.1% – 12%), C9 and heavier aromatics (5% – 30%) and total aromatics (10% – 80%).

For users needing to test finished gasoline samples for benzene and toluene by ASTM D3606 with no modifications for oxygenate fuels, Model 4013 utilizes a single channel with the option for an additional channel to create a custom analyzer solution. Aromatic and non-aromatic compounds are measured utilizing a thermal conductivity detector (TCD), with reference to the internal standard methyl-ethyl ketone (MEK). As ethanol co-elutes with benzene, this Model is not suitable for samples containing ethanol. For such samples, Models 4012 and 4014 are suitable options. Detection limits for benzene are 0.1% – 5%, and 2 – 20% for toluene.

Meeting the needs of users analyzing samples by ASTM D3606 (Modified for oxygenated fuels), Model 4014 is an ideal analyzer for the determination of benzene and toluene in finished gasoline. Utilizing PerkinElmer’s modern column technology, Model 4014 allows operators to meet the Appendix 1 requirements of ASTM D3606, ensuring that there is no interference with ethanol when analyzing for benzene. Benzene can be detected at 0.1 – 5%, and Toluene at levels of 2 – 20%.

Featuring a capillary injection port, a pressure switched (PreVent) “heart cut” instrument configuration and three capillary columns, Model 4080 utilizes a PerkinElmer Clarus® 590 GC, and offers total flexibility to analyze for any oxygenate or aromatic compound found in gasoline. The same sample can be run twice with different “heart cut” times, and by spreading the components into two analyses, the interferences found with a large number of components are eliminated. Model 4080 meets the requirements set forth in EN 12177, EN 13132 and IP 425/96 with guaranteed detection levels of benzene at 0.05 – 6%, 0/17% – 15% for individual organic oxygenate compounds, and up to 3.7% for total organically bound oxygen.

Designed for the analysis of trace level oxygenated hydrocarbons (Acetaldehyde, MTBE, methanol, acetone, 2-propanol, DIPE, ETBE and TAME) in gasoline, liquefied petroleum gas and feed stocks of butenes, propylene, and naphtha contaminated with oxygenated compounds, Model 4086 guarantees detection levels of 0.5 ppm. The analyzer utilizes a PerkinElmer Clarus® 590 GC, and features a split/splitless injector, pressurized liquid valve, dual capillary column, Swafer microchannel flow technology and flame ionization detector (FID) to ensure precision and accuracy with ASTM D7423 D7754 and UOP 960. A capillary non-polar precolumn is utilized for separation of light nonpolar compounds and, in conjunction with the backflushing of heavy hydrocarbon utilizing a Swafer™ microchannel, Model 4086 ensures that high-boiling point material do not contaminate the main column.

Meeting the requirements of ASTM D5580, Model 4005 provides an analytical solution for the determination of benzene, toluene, ethylbenzene and other aromatics in finished gasoline. To meet the requirements specified in the method, two analyses are run independently and summed to determine total aromatic content. In the first analysis, benzene and toluene are determined, mitigating the interference of non-aromatic hydrocarbons with boiling points greater than n-dodecane. The second analysis determines the concentration of ethylbenzene, p/m-xylene, o-xylene and the C9 and heavier aromatics. Aromatic hydrocarbons are separated without interferences from other hydrocarbons in the sample. The C8 aromatics, p-xylene and m-xylene coelute, but ethylbenzene and o-xylene separate. The C9 and heavier aromatics are also measured as a single group. Detection levels for ASTM D5580 are as follows: Benzene (0.1 – 5%), toluene (0.1 – 5%), ethylbenzene (0.5-10%), xylenes (0.5-10%), C9 and heavier aromatics, (5 – 30%), and total aromatics (10 – 80%).

Model 4026
Ultra pienien rikki määrien analysaattori

The ability to reliably detect ultra-low-levels of light sulfur compound impurities in a variety of sample types is of vital importance to the oil and gas, environmental, and food and beverage industries, where product quality and compliance with regulations are paramount. PerkinElmer’s portfolio of trace sulfur analyzers utilize gas chromatography techniques with a sulfur chemiluminescence detector (SCD) to detect sulfur at part per billion levels. A programmable pneumatic control is utilized on our trace sulfur analyzers to use precise and automated gas flow, ensuring your quality and productivity objectives are met.

Model 4026 utilizes a sulfur chemiluminescence detector (SCD) for the analysis of sulfur in LPG, naphtha, gasoline and other liquid-petroleum products, using a liquid sampling valve (LSV). Our SCD features an equimolar response to sulfur compounds, promoting a lack of carbon interference with a simple calibration. The analyzer can be designed as an online and/or multi-stream system, and also allows for the addition of a second or third channel, offering complete flexibility to meet the needs of your operation. The analyzer enables compliance with ASTM D5623, and offers detection limits of 10ppb for all sulfur compounds, including hydrogen sulfide (H2S), carbonyl sulfide (COS), sulfur dioxide (SO2) (cryogenic cooling required for COS/SO2 separation), mercaptans, aromatic sulfur compounds and sulfides.

Model 4027 utilizes a sulfur chemiluminescence detector (CSD) for the analysis of sulfur in stable liquids such as naphtha, gasoline and other liquid-petroleum products that can be injected with a syringe and/or automated liquid autosampler using a capillary split/splitless injection port. Our SCD features an equimolar response to sulfur compounds, promoting a lack of carbon interference with a simple calibration. The analyzer can be designed as an online and/or multi-stream system, and also allows for the addition of a second or third channel, offering complete flexibility to meet the needs of your operation. The analyzer enables compliance with ASTM D5623, and offers detection limits of 10ppb for all sulfur compounds, including hydrogen sulfide (H2S), carbonyl sulfide (COS), sulfur dioxide (SO2) (cryogenic cooling required for COS/SO2 separation), mercaptans, aromatic sulfur compounds and sulfides.

Model 4025 utilizes a sulfur chemiluminescence detector (SCD) for the analysis of sulfur in refinery gas, natural gas, process gas, Kraft gas samples, and beverage gases utilizing a heated gas sampling valve (GSV). Our SCD features an equimolar response to sulfur compounds, promoting a lack of carbon interference with a simple calibration. The analyzer can be designed as an online and/or multi-stream system, and also allows for the addition of a second or third channel, offering complete flexibility to meet the needs of your operation. Further customization options include the addition of a permeation-tube calibration chamber which mounts on the analyzer for easy access. A manual valve is used to select the calibration chamber or the sample input and the permeation tube chamber is capable of accommodating up to four permeation tubes or wafers for calibration of other non-sulfur compounds. Thee analyzer enables compliance with ASTM D5623, and offers detection limits of 10ppb for all sulfur compounds, including hydrogen sulfide (H2S), carbonyl sulfide (COS), sulfur dioxide (SO2) (cryogenic cooling required for COS/SO2 separation), mercaptans, aromatic sulfur compounds and sulfides.

Model 4028 utilizes a sulfur chemiluminescence detector (SCD) for the analysis of sulfur in a wide range of products, such as refinery gas, natural gas, process gas, Kraft gas (via GSV), LPG, pressurized LPG via valve injection, naphtha, gasoline and other gaseous and liquid petroleum products via capillary split/splitless injection port. Our SCD features an equimolar response to sulfur compounds, promoting a lack of carbon interference with a simple calibration. The analyzer can be designed as an online and/or multi-stream system, and also allows for the addition of a second or third channel, offering complete flexibility to meet the needs of your operation. Further customization options include the addition of a permeation-tube calibration chamber which mounts on the analyzer for easy access. A manual valve is used to select the calibration chamber or the sample input and the permeation tube chamber is capable of accommodating up to four permeation tubes or wafers for calibration of other non-sulfur compounds. The analyzer offers compliance with ASTM D5504 and D5623, and offers detection limits of 10ppb for all sulfur compounds, including Hydrogen sulfide (H2S), carbonyl sulfide (COS), sulfur dioxide (SO2) (cryogenic cooling required for COS/SO2 separation), mercaptans, aromatic sulfur compounds and sulfides.

Model 1015
Jalostamo kaasuanalysaattorit (RGA)

Refinery gas analyzers (RGA) utilize gas chromatography to test and characterize gases and pressurized liquids utilized in refinery operations. Routine testing of refinery gas aids operators in achieving product quality goals, while also protecting equipment that could be damaged by contaminants. PerkinElmer’s RGA instruments are designed to provide the flexibility needed by refineries producing a number of petroleum varieties, considering a number of variables, conditions and sample types. Our RGA instruments provide complete solutions for the analysis of hydrogen, helium, oxygen/argon, nitrogen, carbon dioxide, carbon monoxide, hydrogen sulfide, and light hydrocarbons from methane through hexane.

Model 1015 offers a rapid testing solution for the determination of O2, N2, CO2, CO, H2S, C1 through C5 and a =C5/C6+ composite peak in gas samples in 15 minutes. Utilizing a dual channel-flame ionization detector (FID) and thermal conductivity detector (TCD), RGA Model 1015 provides critical butene-1/isobutylene separation, and also includes Model 3062 Software, which contains a merge program to combine multichannel data into one report. Rugged packed columns ensure no degradations from water, ammonia or other common contaminants. Meeting the requirements set forth in ASTM D1945, D1946, D2597, UOP 539, UOP 709, and DIN 51872-4, Model 1015 provides minimum detection levels of 0.002% for the =C5/C6+ composite and 0.001% on all other components on the FID channel, and 0.02% for H2S and 0.01% for all other components on the TCD channel.

Model 1115 offers a rapid testing solution for the determination of He, H2, O2, N2, CO2, CO, H2S, C1 through C5 and a =C5/C6+ composite peak in gas samples in 15 minutes. Utilizing three channels, dual thermal conductivity and a flame ionization detector (TCD/TCD/FID), RGA Model 1115 provides critical butene-1/isobutylene separation, and also includes Model 3062 Software, which contains a merge program to combine multichannel data into one report. Rugged packed columns ensure no degradations from water, ammonia or other common contaminants. Meeting the requirements set forth in ASTM D1945, D1946, D2597, UOP 539, UOP 709, and DIN 51872-4, Model 1115 provides minimum detection levels of 0.002% for the C5/C6+ composite and 0.001% on all other components on the FID channel, and 0.02% for H2S and 0.01% for all other components on the TCD channel.

Model 1117 offers a rapid testing solution for the determination of He, H2, O2, N2, CO2, CO, H2S, =C1 through C5 and a C5/C6+ composite peak in gas samples in 7 minutes or less. Utilizing three channels, dual thermal conductivity and a flame ionization detector (TCD/TCD/FID), Model 1117 utilizes nitrogen as the carrier gas in channel A (TCD) and hydrogen as the carrier gas in channels B (TCD) and C (FID). RGA Model 1117 provides critical butene-1/isobutylene separation, and also includes Model 3062 Software, which contains a merge program to combine multichannel data into one report. Rugged packed columns ensure no degradations from water, ammonia or other common contaminants. Meeting the requirements set forth in ASTM D1945, D1946, D2597, UOP 539, UOP 709, and DIN 51872-4, Model 1116 provides minimum detection levels of 0.002% for the C5/C6+ composite and 0.001% on all other components on the FID channel, and 0.02% for H2S and 0.01% for all other components on the TCD channel.

Model 1215 builds on the features of Model 1015, with the added benefit of liquid and pressurized liquid testing on the FID channel. Model 1215 offers a rapid testing solution for the determination of O2, N2, CO2, CO, H2S, C1 through C5 and a C5/C6+ composite peak in gas, liquid and pressurized liquid (LPG) samples in 15 minutes. Utilizing a flame ionization detector (FID) and a thermal conductivity detector (TCD), Model 1215 provides critical butene-1/isobutylene separation, and also includes Model 3062 Software, which contains a merge program to combine multichannel data into one report. Also included in Model 1215 is a sample-loop purge feature that prevents contamination when changing sample types, a secondary filter and back-pressure regulation for proper liquid-sample introduction, and a built-in vaporization zone for proper liquid-sample injection. Rugged packed columns ensure no degradations from water, ammonia or other common contaminants. Meeting the requirements set forth in ASTM D1945, D1946, D2597, UOP 539, UOP 709, and DIN 51872-4, Model 1215 provides minimum detection levels of 0.002% for the =C5/C6+ composite and 0.001% on all other components on the FID channel, and 0.02% for H2S and 0.01% for all other components on the TCD channel.

Model 1315 builds on the features of Model 1215, with the added benefit of three channels – a dual thermal conductivity detector and a flame ionization detector (TCD/TCD/FID). Model 1315 offers a rapid in 15 minute testing solution for the determination of He, H2, O2, N2, CO2, CO, H2S, C1 through C5 and a C5/C6+ composite peak in gas, as well as liquid and pressurized liquid (LPG) samples on the FID channel. RGA Model 1315 provides critical butene-1/isobutylene separation, and also includes Model 3062 Software, which contains a merge program to combine multichannel data into one report. Also included in Model 1315 is a sample-loop purge feature that prevents contamination when changing sample types, a secondary filter and back-pressure regulation for proper liquid-sample introduction, and a built-in vaporization zone for proper liquid-sample injection. Rugged packed columns ensure no degradations from water, ammonia or other common contaminants. Meeting the requirements set forth in ASTM D1945, D1946, D2597, UOP 539-87, UOP 709, and DIN 51872-4, Model 1315 provides minimum detection levels of 0.002% for the =C5/C6+ composite and 0.001% on all other components on the FID channel, and 0.02% for H2S and 0.01% for all other components on the TCD channel.

Model 1317 offers an ultra-fast 7.5 minute analysis time utilizing three channels – a dual thermal conductivity detector and flame ionization detector (TCD/TCD/FID) and hydrogen carrier gas. Model 1317 offers a high-end testing solution for the determination of He, H2, O2, N2, CO2, CO, H2S, C1 through C5 and a =C5/C6+ composite peak in gas, liquid and pressurized liquid samples on the FID channel. RGA Model 1317 provides critical butene-1/isobutylene separation, and also includes Model 3062 Software, which contains a merge program to combine multichannel data into one report. Also included in Model 1317 is a sample-loop purge feature that prevents contamination when changing sample types, a secondary filter and back-pressure regulation for proper liquid-sample introduction, and a vaporization zone for proper liquid-sample injection. Rugged packed columns ensure no degradations from water, ammonia or other common contaminants. Meeting the requirements set forth in ASTM D1945, D1946, D2597, UOP 539, UOP 709, and DIN 51872-4, Model 1317 provides minimum detection levels of 0.002% for the C5/C6+ composite and 0.001% on all other components on the FID channel, and 0.02% for H2S and 0.01% for all other components on the TCD channel.

Model 1515 builds on the capabilities of Model 1315, offering the analysis of He, H2, O2, N2, CO2, CO, H2S, C1 through C5 and a =C5/C6+ composite peak in gas, liquid and pressurized liquid (LPG) samples. In addition to the capabilities of Model 1315, this Model includes an LSV on both the HC and LG channels. Utilizing three channels – a dual thermal conductivity detector and a flame ionization detector (TCD/TCD/FID) to analyze all sample types, Model 1515 can analyze samples for all analytes in 15 minutes. RGA Model 1515 provides critical butene-1/isobutylene separation, and also includes Model 3062 Software, which contains a merge program to combine multichannel data into one report. Also included in Model 1515 is a sample-loop purge feature that prevents contamination when changing sample types, a secondary filter and back-pressure regulation for proper liquid-sample introduction, and a built-in vaporization zone for proper liquid-sample injection. Rugged packed columns ensure no degradations from water, ammonia or other common contaminants. Meeting the requirements set forth in ASTM D1945, D1946, D2597, UOP 539, UOP 709, and DIN 51872-4, Model 1515 provides minimum detection levels of 0.002% for the =C5/C6+ composite and 0.001% on all other components on the FID channel, and 0.02% for H2S and 0.01% for all other components on the TCD channel.

Model 1116 offers a rapid testing solution for the determination of He, H2, O2, N2, CO2, CO, H2S, C1 through C5 and a =C5/C6+ composite peak in gas samples in 15 minutes. Utilizing three thermal conductivity detector channels (TCD/TCD/FID), RGA Model 1116 provides critical butene-1/isobutylene separation, and also includes Model 3062 Software, which contains a merge program to combine multichannel data into one report. Rugged packed columns ensure no degradations from water, ammonia or other common contaminants. Meeting the requirements set forth in ASTM D1945, D1946, D2597, UOP 539, UOP 709, and DIN 51872-4, Model 1116 provides minimum detection levels of 0.002% for the C5/C6+ composite and 0.001% on all other components on the FID channel, and 0.02% for H2S and 0.01% for all other components on the TCD channel.

Model 2001
Maakaasu analysaattorit

The efficient and accurate analysis of natural gas, liquids and pressurized liquids, and the calculation of its physical properties are of critical importance to ensuring safety and quality during the production and transport of natural gasses. Owing to the varied and substantial nature of both organic and inorganic constituents in natural gas samples, it is imperative that operators utilize an analyzer created specifically for natural gas analysis. PerkinElmer offers a wide selection of pre-configured, easy to operate natural gas analyzers that provide the flexibility to consider all types of samples, analyzing components of interest in gas, liquid and pressurized liquid samples using TCD and FID detection.

Model 2001 offers a simple, cost-effective solution for the detection of O2/N2 composite, CO2, H2S, C1 through C5 and a C6+ composite peak in gas, with detection levels of 0.01% for all compounds with the exception of H2S at 0.1%. Utilizing a single-channel thermal conductivity detector (TCD) coupled with rugged packed columns, our Model 2001 NGA is not susceptible to degradation from common contaminants, reducing maintenance requirements and lowering total cost of ownership. Model 2001 meets analytical requirements of ASTM D1945, GPA 2261, ISO 6568, ISO 6974-5 and DIN 51872-5.

NGA Model 2101 features a dual channel thermal conductivity detector (TCD/TCD) to achieve full range helium and hydrogen detection in gas samples. Designed to ensure that the lowest boiling C6 compound (2,2-dimethylbutane) is included in the backflush on the TCD channel, Model 2101 reduces interference potential while also preventing degradation from common contaminants with rugged packed columns. Compliant with the requirements set forth in ASTM D1945, GPA 2261, ISO 6568, ISO 6974-5 and DIN 51872-5, Model 2101 provides detection levels of 0.001% for helium and hydrogen, 0.01% for O2/N2 composite, CO2, C1 through C5 and a C6+ composite peak, and 0.1% for H2S.

Model 2201 offers a simple, cost-effective solution for the detection of O2/N2 composite, CO2, H2S, C1 through C5 and a C6+ composite peak in gas, liquids and pressurized gases, with detection levels of 0.01% for all compounds with the exception of H2S at 0.1%. Utilizing a single-channel thermal conductivity detector (TCD) coupled with rugged packed columns, our Model 2201 NGA is not susceptible to degradation from common contaminants, reducing maintenance requirements and lowering total cost of ownership. Model 2201 meets analytical requirements of ASTM D1945, GPA 2177 and 2261, ISO 6568, ISO 6974-5 and DIN 51872-5.

NGA Model 2301 features a dual channel thermal conductivity detector (TCD/TCD) to achieve full range helium and hydrogen detection in gas, liquid and pressurized liquid samples. Designed to ensure that the lowest boiling C6 compound (2,2-dimethylbutane) is included in the backflush on the TCD channel, Model 2301 reduces interference potential while also preventing degradation from common contaminants with rugged packed columns. To further reduce the potential for contamination, Model 2301 includes a sample-loop purge feature utilized when changing sample types, a secondary filter and back-pressure regulator for proper liquid-sample introduction, and a vaporization zone for proper liquid-sample injection. Compliant with the requirements set forth in ASTM D1945, GPA 2177 and 2261, ISO 6568, ISO 6974-5 and DIN 51872-5, Model 2301 provides detection levels of 0.001% for helium and hydrogen, 0.01% for O2/N2 composite, CO2, C1 through C5 and a C6+ composite peak, and 0.1% for H2S.

Natural Gas Analyzer (NGA) Model 2002 offers separation of the O2/N2 composite, argon (if present) methane, H2S, C1 through C5 and C6+ composite. Utilizing a single channel thermal conductivity detector (TCD), Model 2002 is compliant with ASM D1945, GPA 2261, GPA2177, ISO 6974-5 and DIN 51872-5. Designed to ensure that the lowest boiling C6 compound (2,2-dimethylbutane) is included in the backflush on the TCD channel, Model 2002 reduces interference potential while also preventing degradation from common contaminants with rugged packed columns. Model 2002 provides detection levels of 0.1% for Ar and H2S, 0.01 for the C6+ composite, and 0.01% for all other reportable compounds.

Model 2003 offers a simple, cost-effective solution for the detection of O2, N2, CO2, H2S, C1 through C5 and a C6+ composite peak in gases, with detection levels of 0.01% for all compounds with the exception of H2S at 0.1%. Utilizing a single-channel thermal conductivity detector (TCD) coupled with rugged packed columns, our Model 2003 NGA is not susceptible to degradation from common contaminants, reducing maintenance requirements and lowering total cost of ownership. In this model, oxygen and nitrogen nitrogen can be separated and measured for a more robust application. Model 2003 meets analytical requirements of ASTM D1945 and 1946, GPA 2261, and DIN 51872-5.

NGA Model 2103 features a dual channel thermal conductivity detector (TCD/TCD) to achieve full range helium and hydrogen detection in gas samples utilizing helium and nitrogen as the carrier gases. In this model, oxygen and nitrogen can be separated and measured for a more robust application. Designed to ensure that the lowest boiling C6 compound (2,2-dimethylbutane) is included in the backflush on the TCD channel, Model 2103 reduces interference potential while also preventing degradation from common contaminants with rugged packed columns. Compliant with the requirements set forth in ASTM D1945 and 1946, GPA 2261, and DIN 51872-5, Model 2103 provides detection levels of 0.001% for helium and hydrogen, 0.01% for O2, N2, CO2, C1 through C5 and a C6+ composite peak, and 0.1% for H2S.

NGA Model 2103H2 features a dual channel thermal conductivity detector (TCD/TCD) to achieve full range hydrogen detection in gas samples utilizing hydrogen and nitrogen as the carrier gases. In this model, oxygen and nitrogen can be separated and measured for a more robust application. Designed to ensure that the lowest boiling C6 compound (2,2-dimethylbutane) is included in the backflush on the TCD channel, Model 2103H2 reduces interference potential while also preventing degradation from common contaminants with rugged packed columns. Compliant with the requirements set forth in ASTM D1945 and 1946, GPA 2261, and DIN 51872-5, Model 2103H2 provides detection levels of 0.001% for helium and hydrogen, 0.01% for O2, N2, CO2, C1 through C5 and a C6+ composite peak, and 0.1% for H2S.

Model 2203 offers a simple, cost-effective solution for the detection of O2, N2, CO2, H2S, C1 through C5 and a C6+ composite peak in gases, liquids and pressurized liquids, with detection levels of 0.01% for all compounds with the exception of H2S at 0.1%. Utilizing a single-channel thermal conductivity detector (TCD) coupled with rugged packed columns, our Model 2203 NGA is not susceptible to degradation from common contaminants, reducing maintenance requirements and lowering total cost of ownership. Model 2203 meets analytical requirements of ASTM D1945 and 1946, GPA 2261, and DIN 51872-5.

NGA Model 2303 features a dual channel thermal conductivity detector (TCD/TCD) to achieve full range helium and hydrogen detection in gas, liquid and pressurized samples utilizing helium and nitrogen as the carrier gases. In this model, oxygen and nitrogen can be separated and measured for a more robust application. Designed to ensure that the lowest boiling C6 compound (2,2-dimethylbutane) is included in the backflush on the TCD channel, Model 2303 reduces interference potential while also preventing degradation from common contaminants with rugged packed columns. Compliant with the requirements set forth in ASTM D1945 and 1946, GPA 2261, and DIN 51872-5, Model 2303 provides detection levels of 0.001% for helium and hydrogen, 0.01% for O2, N2, CO2, C1 through C5 and a C6+ composite peak, and 0.1% for H2S.

Model 2006 offers an effective and efficient solution for the detection of O2/N2 composite, CO2, H2S, C1 through C5 and a C6+ composite peak in gas samples, with detection levels of 0.01% for all compounds with the exception of H2S at 0.1%. Utilizing a dual-channel thermal conductivity detector (TCD) and flame ionization detector (FID), coupled with rugged packed and capillary columns to extend hydrocarbon analysis to C10, our Model 2006 NGA is not susceptible to degradation from common contaminants, reducing maintenance requirements and lowering total cost of ownership. Model 2006 meets analytical requirements of ASTM D1945, GPA 2261, ISO 6568, ISO 6974-5 and DIN 51872-5.

NGA Model 2106 features three channels – dual thermal conductivity and single flame ionization detector (TCD/TCD/FID) – to achieve full range helium and hydrogen detection in gas samples. Designed to ensure that the lowest boiling C6 compound (2,2-dimethylbutane) is included in the backflush on the TCD channel, Model 2106 reduces interference potential while also preventing degradation from common contaminants with rugged packed columns. Compliant with the requirements set forth in ASTM D1945, GPA 2261, ISO 6568, ISO 6974-5 and DIN 51872-5, Model 2106 provides detection levels of 0.01% for helium and hydrogen, 0.01% for O2/N2 composite, CO2, C1 through C5 and a C6+ composite peak, and 0.1% for H2S on the TCD channels, and 0.001% for all components on the FID channel.

Model 2206 offers an effective and efficient solution for the detection of O2/N2 composite, CO2, H2S, C1 through C5 and a C6+ composite peak in gas, liquid and pressurized gas samples, with detection levels of 0.01% for all compounds with the exception of H2S at 0.1%. Utilizing a dual-channel thermal conductivity detector (TCD) and flame ionization detector (FID), coupled with packed and capillary columns to extend hydrocarbon analysis to C10, our Model 2206 NGA is not susceptible to degradation from common contaminants, reducing maintenance requirements and lowering total cost of ownership. Model 2206 meets analytical requirements of ASTM D1945, GPA 2261, ISO 6568, ISO 6974-5 and DIN 51872-5.

NGA Model 2306 features three channels – dual thermal conductivity and single flame ionization detector (TCD/TCD/FID) – to achieve full range helium and hydrogen detection in gas, liquid and pressurized liquid samples. Designed to ensure that the lowest boiling C6 compound (2,2-dimethylbutane) is included in the backflush on the TCD channel, Model 2306 reduces interference potential while also preventing degradation from common contaminants with rugged packed columns. To further reduce the potential for contamination, Model 2306 includes a sample-loop purge feature utilized when changing sample types, a secondary filter and back-pressure regulator for proper liquid-sample introduction, and a vaporization zone for proper liquid-sample injection. Compliant with the requirements set forth in ASTM D1945, GPA 2177 and 2261, ISO 6568, ISO 6974-5 and DIN 51872-5, Model 2101 provides detection levels of 0.001% for helium and hydrogen, 0.01% for O2/N2 composite, CO2, C1 through C5 and a C6+ composite peak, and 0.1% for H2S.

Model 2406 offers an effective and efficient solution for the detection of O2/N2 composite, CO2, H2S, C1 through C5 and a C6+ composite peak in gas, liquid and pressurized gas samples, with detection levels of 0.01% for all compounds with the exception of H2S at 0.1%. Utilizing a dual-channel thermal conductivity detector (TCD) and flame ionization detector (FID), coupled with packed and capillary columns to extend hydrocarbon analysis to C10, our Model 2406 NGA is not susceptible to degradation from common contaminants, reducing maintenance requirements and lowering total cost of ownership. Model 2406 was designed to ensure that the lowest boiling C6 compound (2,2-dimethylbutane) is included in the backflush on the TCD channel, reducing interference potential. To further reduce the potential for contamination and interference, Model 2406 also includes a sample-loop purge feature utilized when changing sample types, a secondary filter and back-pressure regulator for proper liquid-sample introduction, and a vaporization zone for proper liquid-sample injection. Model 2406 meets analytical requirements of ASTM D1945, GPA 2261, ISO 6568, ISO 6974-5 and DIN 51872-5.

Model 2008 offers a simple, cost-effective solution for the detection of O2, N2, CO2, H2S, C1 through C5, and a C6+ composite peak in gas and liquid samples, utilizing a dual channel thermal conductivity detector (TCD) and flame ionization detector (FID) with packed and capillary columns to extend hydrocarbon analysis to C10. Minimum detection levels of 0.01% are achievable for all compounds with the exception of H2S at 0.1% on the TCD channel, and 0.001% for all reportable components on the FID channel. Model 2008 is not susceptible to degradation from common contaminants, reducing maintenance requirements and lowering total cost of ownership, and was designed to ensure that the lowest boiling C6 compound (2,2-dimethylbutane) is included in the backflush on the TCD channel, reducing interference potential. Model 2008 meets analytical requirements of ASTM D1945 and 1946, GPA 2261, and DIN 51872-5.

NGA Model 2108 features three channels – dual thermal conductivity and single flame ionization detector (TCD/TCD/FID) – to achieve full range helium and hydrogen detection in gas samples utilizing helium and nitrogen as the carrier gases. In this model, oxygen and nitrogen can be separated and measured for a more robust application. Designed to ensure that the lowest boiling C6 compound (2,2-dimethylbutane) is included in the backflush on the TCD channel, Model 2108 reduces interference potential while also preventing degradation from common contaminants with rugged packed columns. Compliant with the requirements set forth in ASTM D1945 and 1946, IP 345, GPA2286, ISO 6974E, 6974-3 and 6975, Model 2108 provides detection levels utilizing the TCD channel of 0.01% for helium and hydrogen, 0.01% for O2, N2, CO2, C1 through C5 and a C6+ composite peak, and 0.1% for H2S, and 0.001% for all reportable components using the FID channel.

NGA Model 2108H2 features three channels – dual thermal conductivity and single flame ionization detector (TCD/TCD/FID) – to achieve full range helium and hydrogen detection in gas, samples utilizing hydrogen and nitrogen as the carrier gases. In this model, oxygen and nitrogen can be separated and measured for a more robust application. Designed to ensure that the lowest boiling C6 compound (2,2-dimethylbutane) is included in the backflush on the TCD channel, Model 2108H reduces interference potential while also preventing degradation from common contaminants with rugged packed columns. Compliant with the requirements set forth in ASTM D1945 and 1946, IP 345, GPA2286, ISO 6974E, 6974-3 and 6975, Model 2108 provides detection levels utilizing the TCD channel of 0.01% for helium and hydrogen, 0.01% for O2, N2, CO2, C1 through C5 and a C6+ composite peak, and 0.1% for H2S, and 0.001% for all reportable components using the FID channel.

Model 2208 offers a simple, cost-effective solution for the detection of O2, N2, CO2, H2S, C1 through C5, and a C6+ composite peak in gas, liquid and pressurized liquid samples, utilizing a dual channel thermal conductivity detector (TCD) and flame ionization detector (FID) with packed and capillary columns to extend hydrocarbon analysis to C10. Minimum detection levels of 0.01% are achievable for all compounds with the exception of H2S at 0.1% on the TCD channel, and 0.001% for all reportable components on the FID channel. Model 2208 is not susceptible to degradation from common contaminants, reducing maintenance requirements and lowering total cost of ownership, and was designed to ensure that the lowest boiling C6 compound (2,2-dimethylbutane) is included in the backflush on the TCD channel, reducing interference potential. Model 2208 meets analytical requirements of ASTM D1945 and 1946, GPA 2261, 2286, 2186 and DIN 51872-5.

Trace kaasuanalysaattorit

PerkinElmer offers a selection of Trace Gas Analyzers for the detection of hydrogen, carbon dioxide, ethylene, ethane, acetylene, oxygen/argon, nitrogen, carbon monoxide, and total hydrocarbons. Our engineered solutions for trace gas analysis include FID, DID and PID detectors to ensure flexibility and increased instrument productivity. To ensure efficient setup within your laboratory, operation parameters are set and tested at the factory prior to shipment, with instrumental methods pre-loaded. Once installed, samples can be processed immediately, allowing you to optimize instrument up-time and productivity from day one.

Model 4044 features a dual channel capillary column, with a discharge ionization detector (DID) on the first channel, and a flame ionization detector (FID) on the second channel. Ideal for use with bulk gases such as beverage-grade CO2, Model 4044 offers detection of hydrogen, argon, oxygen, nitrogen, methane, carbon monoxide and total hydrocarbons, with ultra-low reporting limits at 20 ppb for total hydrocarbons, 100 ppb for carbon monoxide, and 50ppb for all other reportable compounds. Pair your analyzer with other applications to build a customer analyzer specifically for your operations, or add accessories to increase productivity, such as an online and/or multi-stream sampling product.

Developed for the detection of carbon monoxide (CO), methane (CH4) and carbon dioxide (CO2), Model 4021 offers detection levels as low as 0.1 ppm. Utilizing a single column set and channel – methanizer/flame ionization detector (FID), Model 4021 can analyze gas samples with large methane concentrations, while ensuring enhanced sensitivity with purged valve housings and passivated tubing. With pre-configuration at the factory, Model 4021 meets the requirements set forth by ASTM D3416 and ISO 6381.

Utilizing a 4-port heart-cut valve for venting, Model 4024 can analyze samples that are free of oxygen with high (up to 99%) methane concentrations and meets UOP 603-13 for the determination of carbon monoxide (CO), methane (CH4) and carbon dioxide (CO2). With an 8-minute run-to-run isothermal analysis time, Model 4024 will aid you in reaching productivity and throughput goals.

Developed to handle samples that do not contain large methane concentrations, Model 4022 offers detection of carbon monoxide (CO), methane (CH4) and carbon dioxide (CO2), with detection levels as low as 0.1 ppm. Utilizing a single column set and channel – methanizer/flame ionization detector (FID), Model 4022 ensures enhanced sensitivity with purged valve housings and passivated tubing. With pre-configuration at the factory, Model 4022 meets the requirements set forth by ASTM D3416 and ISO 6381.

For users analyzing bulk gases such as beverage grade CO2, Model 4040 utilizes a capillary column and discharge ionization detector (DID) for the detection of hydrogen, argon, oxygen, nitrogen, methane and carbon monoxide, and allows for the addition of a second channel for multiple applications such as trace sulfur detection. Meeting the specifications set forth by ISBT for trace impurities in CO2, bulk gas and polymer grade ethylene, propylene, Model 4040 offers minimum detection levels of 100 ppb for carbon monoxide and methane, and 50 ppb for all other reportable compounds. This model can be combined with other applications, such as Model 4044, and is also compatible with additional PerkinElmer products for online and/or multi-stream sampling, or push-button plant operation software, providing the flexibility and customization you need for all your bulk gas sampling requirements.

Meeting the needs of users analyzing samples by ASTM D2504, Model 4083 offers trace-level detection and measurement of components using packed columns and a discharge ionization detector (DID), and allows for the addition of a second channel for multiple applications such as trace sulfur detection. To ensure optimal productivity and performance, all features of Model 4083’s valving, fittings, tubing and columns are designed to be inert and leak tight, with all key components located in a carrier-gas purged enclosure. Model 4083 also includes a carrier-gas purifier to ensure all carrier gases utilized in the analysis are of the highest possible quality, reducing the potential for re-runs associated with carrier gas contamination. Minimum detection levels for Model 4083 are 100ppb for carbon dioxide and 50 ppb for hydrogen, oxygen/argon (coelute), nitrogen and methane.

model 4016
Kevyet hiilivedyt TCD kaasuanalysaattorit

Our solutions are designed specifically to ensure your compliance with regulatory methods ASTM D1946 and E1746 for chlorine impurities analysis, while also optimizing productivity and ROI. Our series of analyzers utilize a combination of gas chromatography (GC) and a thermal conductivity detector (TCD), providing an efficient and robust solution for the analysis of gaseous samples. Alert – ASTM E1746, Model 4020: In response to the COVID-19 crisis, PerkinElmer addresses ASTM E1746 “Standard Test Method for Sampling and Analysis of Liquid Chlorine for Gaseous Impurities” in order to serve the needs of chemicals producers aiding in the current bleach and bleach-based wipe disinfectants shortage. Learn more about the Chlorine Analyzer here.

Model 4016 utilizing a single thermal TCD and packed columns, Model 4016 can be paired with a number of optional channels including an FID (Flame Ionization Detector) for better hydrocarbon detection, a Methanizer/FID and purged-valve housings for trace CO and CO2 analysis, an FPD (Flame Photometric detector) or a sulfur chemiluminescence detector for sub-ppm levels of hydrogen sulfide and other light sulfur compounds. Meeting the needs of operations required to analyze samples for ASTM D1946, PerkinElmer’s Model 4016 guarantees detection limits of 0.02% for H2S, and 0.01% for Ar-O2 composite, N2, CH4, CO, CO2, ethylene, ethane and acetylene.

Utilizing a dual thermal TCD and packed columns, Model 4017 can be paired with a number of optional channels including an FID (flame ionization detector) for better hydrocarbon detection, a methanizer/FID and purged-valve housings for trace CO and CO2 analysis, an FPD (Flame Photometric detector) or a sulfur chemiluminescence detector for sub-ppm levels of hydrogen sulfide and other light sulfur compounds. Building on the features of Model 4016, this analyzer offers full-range hydrogen detection using a separate channel with nitrogen carrier gas. Meeting the needs of operations required to analyze samples for ASTM D1946, PerkinElmer’s Model 4017 guarantees detection limits of 0.02% for H2S, and 0.01% for Ar-O2 composite, N2, CH4, CO, CO2, ethylene, ethane and acetylene.

Designed for the analysis of light gases, furnace gases, stack gases, combustion gases, decoking gases and mine gases, Model 4019 offers both a dual TCD and a single TCD (TCD/TCD/TCD) to meet the needs of customers analyzing samples for method ASTM D1946. Detectable compounds include He, H2, Ar, O2, N2, CH4, CO, CO2, ethylene, ethane, acetylene and H2S, with detection limits at 0.01% for all compounds with the exception of H2S which has a 0.02% guaranteed detection level.

Model 4020 utilizes proprietary packing materials in the first column in both dual packed column channels, allowing for the efficient analysis of He, H2, O2-Ar, N2, CH4, CO2, CO in Chlorine. Samples containing water will not interfere with the analysis or hardware in the Model 4020 analyzer, as all tubing and valves that come into contact with the samples are constructed of chlorine-resistant material to ensure long term durability and longevity of the instrument.

Offering many of the same features and benefits of Model 4016, Model 4016AR utilizes Argon as a carrier gas to accommodate a full range of H2 detection down to a 0.001% detection level.

model 4035
Kevyet hiilivedyt FID kaasuanalysaattorit

Designed to meet the needs of users analyzing gaseous and liquid light hydrocarbon samples, such as liquified petroleum gas (LPG), PerkinElmer’s light hydrocarbon analyzers (LHA) provide a complete solution for the analysis of C1 – C6, utilizing a flame ionization detector (FID) configured with your choice of an external oven with a gas sampling valve (GSV), liquid sampling valve (LSV), or with both types of sampling valves to accommodate both gaseous and liquid samples. Offering pre-loaded methods to meet ASTM D2163, D2593, D2712, D2820 and D4424, PerkinElmer’s LHA instruments allow for fast set-up in your laboratory, facilitating near immediate returns on investment.

Designed for use with gaseous samples, Model 4035 features an external oven design and gas sampling valve (GSV), which ensures no sample condensation forms in the sample loop. Offering analysis of all hydrocarbons from methane through hexane, Model 4035 provides applications for propylene/butylene manufacturing and analysis of butane streams, which are free of compounds that irreversibly poison the Alumina PLOT column (NH3, H2S). Model 4035 utilizes a PerkinElmer Clarus® 590 PPC, and allows for the addition of a second channel for multiple applications on the same analyzer.

Designed for use with gaseous samples, Model 4035 features an external oven design and gas sampling valve (GSV), which ensures no sample condensation forms in the sample loop. Offering analysis of all hydrocarbons from methane through hexane, Model 4035 provides applications for propylene/butylene manufacturing and analysis of butane streams, which are free of compounds that irreversibly poison the Alumina PLOT column (NH3, H2S). Model 4035 utilizes a PerkinElmer Clarus® 690 PPC, and allows for the addition of a second channel for multiple applications on the same analyzer.

Designed for use with liquid and pressurized liquid samples (LPG), Model 4036 features a liquid sampling valve (LSV) mounted at ambient temperature allowing for full-range temperature programming for column reconditioning (removing CO2 and H2O). The Analyzer includes a secondary filter and back-pressure relief valve, as well as a vaporization zone, to ensure proper liquid-sample introduction and injection. Model 4036 utilizes a PerkinElmer Clarus® 590 PPC, and allows for the addition of a second channel for multiple applications on the same analyzer.

Facilitating the analysis of gas, liquid and pressurized liquid (LPG) samples, Model 4037 features both a gas sampling valve (GSV) and a liquid sampling valve (LSV), bundling the features and benefits of Models 4035 and 4036 into a single Analyzer. Model 4037 utilizes a PerkinElmer Clarus® 590 PPC, allows for the addition of a second channel for multiple applications on the same analyzer.

Facilitating the analysis of gas, liquid and pressurized liquid (LPG) samples, Model 4037 features both a gas sampling valve (GSV) and a liquid sampling valve (LSV), bundling the features and benefits of Models 4035 and 4036 into a single Analyzer. Model 4037 utilizes a PerkinElmer Clarus® 690 PPC, allows for the addition of a second channel for multiple applications on the same analyzer.

Designed for use with liquid and pressurized liquid samples (LPG), Model 4035 features a liquid sampling valve (LSV) mounted at ambient temperature allowing for full-range temperature programming for column reconditioning (removing CO2 and H2O). The Analyzer includes a secondary filter and back-pressure relief valve , as well as a vaporization zone, to ensure proper liquid-sample introduction and injection. Model 4036 utilizes a PerkingElmer Clarus 690 PPC, and allows for the addition of a second channel for multiple applications on the same analyzer.

Fix Gas kaasuanalysaattorit

Coupling gas chromatography (GC) with a thermal conductivity detector (TCD) is a robust and effective method for analyzing fixed gases such as Helium, Hydrogen, Oxygen and Nitrogen in refinery gas samples. To meet the needs of the petrochemical industry, PerkinElmer has developed a family of fixed gas analyzers that utilize simple packed-column technology for the determination of a variety of fixed gases. Fully complaint with ASTM methods D1945 and D1946, PerkinElmer’s models 4032, 4033 and 4034 deliver detection limits at or below 10 ppm for He, H2, O2 and N2, allowing your operations to achieve your compliance and productivity goals

A Fixed Gas Analyzer, Model 4032 offers analytical solutions for the determination of Helium and Hydrogen in gas samples. In support of methods ASTM D1945 and D1946, Model 4032 provides detection levels as low as 10 ppm utilizing a single-channel TCD. Combine Model 4032 with other models to create a custom analyzer to meet your specific testing needs.

A Fixed Gas Analyzer, Model 4033 offers analytical solutions for the determination of Oxygen and Nitrogen in gas samples. In support of methods ASTM D1945 and D1946, Model 4033 provides detection levels as low as 25 ppm utilizing a single-channel TCD. Combine Model 4033 with other models to create a custom analyzer to meet your specific testing needs.

A Fixed Gas Analyzer, Model 4034 offers analytical solutions for the determination of Helium, Hydrogen, Oxygen and Nitrogen in gas samples. In support of methods ASTM D1945 and D1946, Model 4034 provides detection levels as low as 10 ppm utilizing a dual-channel with two TCDs.

Kustomoimut kaasuanalysaattorit

The advent of new technologies, such as hydraulic fracturing, have ushered in new and increased demands for rapid, reliable and accurate petrochemical product analyses. Flexibility, improved sensitivity, low maintenance, and customization of analyzers are vital to meet the challenges of today’s laboratory needs. To meet the evolving and complex needs of the industry, PerkinElmer offers clients the ability to create custom built GC analyzers designed specifically for their specialized applications.

For nearly 30 years, PerkinElmer has produced and installed Arnel-GC standard and custom analyzers in labs around the world. These systems are built with extensive knowledge and experience in providing turn-key solutions that meet specific application requirements. While standard systems include predefined manufacturing assembly and test processes, our custom systems are based on mutually agreed upon performance specifications and requirements.

Our custom solutions range from simple modifications to existing analyzers to complex systems with unique and pre-defined requirements. As with our standard models, all operational parameters, including gas flows and temperature programs, are developed and tested in the factory, with requested methods pre-loaded onto the instrument. Once installed in the laboratory, samples can be processed, and results obtained immediately – reducing the time and costs associated with on-boarding an instrument.

GC kulutustarvike- ja varaosa katalogi
PerkinElmer kaasukromatografian kulutus- ja varaosakatalogi

PerkinElmer is committed to providing reliable consumables that support chromatographers across the globe.  We supported the growth of chromatography into the wide-spread technique it has become, and we’re still here serving separation scientists today.  From columns to spare parts, PerkinElmer can keep your instruments running well into the future.