Chemical Analysis. Low Level Oxygenates Analyzer. Trace Analysis of Oxygenates in Hydrocarbon Matrices. Gas Chromatography.

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Chemical Analysis Low Level Oxygenates Analyzer Trace Analysis of Oxygenates in Hydrocarbon Matrices think forward Gas Chromatography

The determination of sub to high ppm levels of ethers, alcohols, aldehydes and ketones in different hydrocarbon matrices is a recurring challenge in the petroleum refining and petrochemical industry. The Bruker Low Level Oxygenates Analyzer is an easy to use turnkey solution to meet this analysis challenge. Key Benefits include: Factory optimized to ensure excellent analysis results The system is configured, optimized and tested at the factory to analyze oxygenated components at concentrations as low as 100 ppb in streams with a final boiling point of up to 250 o C and no interference from the hydrocarbon matrix. An optimized system for the analysis of oxygenates at trace level. A powerful GC solution, yet extremely easy to operate The 450-GC and Galaxie TM Chromatography Data Handling Software, is a very powerful combination and is key to the system s ability to generate reliable results. The system can be used sucessfully without a high level of operator skill. A flexible, economical analysis solution The analysis system is configured to accommodate gas, liquid and liquified petroleum gas (LPG) streams. With both a gas and a liquid sampling valve, both substances can be analyzed by any hardware reconfiguration. A cost effective, time-saving solution All Bruker GC analyzers not only include proven GC hardware and software but are also pre-loaded with analysis methods and documentation specific to the method required. All operational procedures are fully documented. A comprehensive, single vendor solution The hardware, software, application optimization, documentation, installation and support services are all provided by Bruker, allowing analysis to be carried out quickly and efficiently by one dependable supplier. Figure 1: The analyzer incorporates the 450-GC

Low Level Oxygenates Analyzer Oxygenated compounds can be present in hydrocarbon streams for a variety of reasons. For example, methanol is added to crude oil to reduce the formation of hydrates during transportation and storage. Unfortunately, the presence of methanol in downstream operations is highly problematic. Clean-up processes like hydro-treating are used in an attempt to remove oxygenated compounds. But even at trace levels (sub ppm), oxygenates quickly degrade or destroy expensive process catalysts, (e.g. polymer production). Although there are a number of industry standard methods for the analysis of oxygenated compounds in use today (ASTM D4815 or D5599, EN 13132 or 1601 and DIN 51413-7), none are suitable for the analysis of oxygenates at sub ppm levels. To meet this need, the Low Level Oxygenates Analyzer has been developed. Analyzer Overview The Low Level Oxygenates Analyzer is designed and optimized to quantify ppm and sub ppm levels of ethers (e.g. DME, MTBE, ETBE, DIPE), alcohols (e.g. methanol, ethanol, propanol), ketones (e.g. acetone, MEK) and aldehydes in various hydrocarbon matrices. In general, all oxygenated components with a boiling point of up to 100 o C can be analyzed. The sample can be a gas, LPG or liquid under ambient conditions with a final boiling point up to 250 o C. The system is comprised of a Bruker 450-GC configured with gas and liquid sampling valves, two high performance capillary analysis columns, digitally controlled pneumatics including a fluidic switch and Flame Ionization Detector (FID). An optional pressure station can be added to eliminate the possibility of losing sample due to evaporation when analyzing LPG. The 450-GC is controlled via the Galaxie TM Chromatography Data Handling Software, which acquires data, processes it and generates analyses reports. The gas or liquid sample is injected via a gas or liquid sampling valve onto the first of two columns (CP-SIL 5CB and LOWOX TM ). A fluidic switch is positioned between the two columns. The lighter fraction (containing the oxygenates) is separated from the rest of the stream components on the CP-SIL 5CB column. The heavier components are then backflushed tovent. The fraction containing the lighter components is transferred onto the second column (LOWOX) using the fluidic switch. The LOWOX column is used to separate the individual oxygenated components from the bulk hydrocarbons. The LOWOX column was specially developed in the 1990s for the trace analysis of oxygenates in hydrocarbon streams. It offers unequalled selectivity for oxygenated compounds. Due to its high selectivity, large amounts of sample can be introduced onto the LOWOX column which, through the use of the sensitive FID, enables the system to achieve the required low detection levels for oxygenated compounds. Figure 2: The analyzer includes both gas and liquid sample valves for maximum flexibility.

Analysis of Oxygenates at sub-ppm Levels 75000 70000 18 65000 60000 55000 3 4 7 50000 8 45000 40000 35000 17 19 30000 25000 20000 15000 1 5 12 9 10 15 16 10000 5000 2 6 13 14 11 0-5000 0 3 6 9 12 15 18 21 24 27 Min Figure 3: A typical chromatogram showing a wide range analysis of a liquid sample stream Calibration is performed using several concentrations of a multi-component standard mixture with varying known/ measured amounts of each oxygenated compound. The system automatically generates a calibration curve for each analyte. The samples are analyzed, each of the oxygenates are automatically quantified and a report of the results is printed at the end of each analysis cycle. (Typical performance results are depicted in Table 1.) Figure 4: Typical chromatogram showing a MTBE range analysis of a gas stream. Peak Identification 1. Diethylether 11. Methanol 2. Acetaldehyde 12. Acetone 3. Ethyl tert. Butyl ether 13. Isovaleraldehyde 4. Methyl pert. Butyl ether 14. Valeraldehyde 5. Diisopropylether 15. 2-Butanone 6. Propanal 16. Ethanol 7. Tert. amyl methyl ether 17. 1-Propanol 8. Propylether 18. Tert. butanol 9. Isobutyraldehyde 2-Methyl 1-propanol 10. Butyraldehyde 19.1-Butanol

Typical Performance Table 1. Typical repeatability in the analysis of oxygenates in a gas stream ETBE MTBE Methanol Aceton MEK Ethanol 1-Propanol Run 1 579554 490771 59388 224339 338840 129250 224083 Run 2 578838 491908 59310 224407 339195 129779 225111 Run 3 585890 481217 60135 225063 340116 131457 227596 Run 4 579313 491673 59663 224583 339338 130075 225695 Run 5 578500 492449 59897 224743 339606 131011 227058 Run 6 577796 493989 59766 224583 339482 130628 226651 Run 7 579844 490743 59879 224593 339622 130645 226309 Run 8 580253 487207 59800 224570 339470 130874 226918 Run 9 580592 484805 59856 224539 339556 130808 226284 Run 10 578693 487272 59946 224530 339893 131131 226630 N 10 10 10 10 10 10 10 Mean 579927 489203 59764 224595 339512 130566 226234 Std. Dev. 2142.60 3775.30 238.60 187.10 334.20 637.80 975.60 RSD % 0.37 0.77 0.40 0.08 0.10 0.49 0.43 Table 2. Typical analyzer performance. Minimum Detection Level System Linearity Typical RSD % 100 ppb/weight 100 ppb to 500 ppm For gas streams; < 2 % for MTBE, methanol and ethanol. For liquid streams; < 2.5 % for MTBE, methanol and ethanol.

Bruker Daltonics is continually improving its products and reserves the right to change specifications without notice. BDAL 05-2010, #CA-270373 Chemical Analysis Solutions GC quadrupole mass spectrometers The Bruker 300-MS series GC/MS systems stand at the pinnacle of versatility for quadrupole mass spectrometer systems. Both the 300-MS and 320-MS are configurable as either single-quadrupole, or triple-quadrupole systems. The 300-MS delivers the performance you ve come to expect from an industry leader in quadrupole innovation. It features an 800 Da mass range, superior negative ion sensitivity, and unmatched robustness in its performance class. The 320-MS delivers femtogram sensitivity, 2000 Da mass range, and a wide array of chromatographic and ionization configurations to uniquely match your needs - all in less than 72 cm. (28 in.) of linear bench space! In minutes, our 300-MS series systems can be changed from EI to CI modes of operation. Easily, our 300-MS and 320-MS are the most sensitive, robust, and flexible quadrupole GC/MS systems currently available. ICP mass spectrometers Choosing an ICP-MS for your elemental analysis needs has never been easier with the Bruker 800-MS Series. The 810-MS is the instrument of choice for routine analysis with industry leading sensitivity and intuitive Web-integrated ICP-MS Expert software. The 820-MS features Bruker s novel collision reaction interface (CRI), providing interference-free analysis and allowing you to tackle any application with ease. With a vast range of accessories, Bruker has the solution to all your ICP-MS application requirements. For research use only. Not for use in diagnostic procedures. Bruker Daltonik GmbH Bremen Germany Phone +49 (421) 2205-0 Fax +49 (421) 2205-103 sales@bdal.de Bruker Daltonics Inc. Billerica, MA USA Phone +1 (978) 663-3660 Fax +1 (978) 667-5993 ms-sales@bdal.com www.bruker.com/chemicalanalysis