AccuTOF GCx JMS-T200GC. Scientific / Metrology Instruments High Performance Gas Chromatograph Time-of-Flight Mass Spectrometer

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Scientific / Metrology Instruments High Performance Gas Chromatograph Time-of-Flight Mass Spectrometer JMS-T200GC AccuTOF GCx GC-TOFMS & Direct TOFMS with high speed, high resolving power, and high mass accuracy.

High performance and all-round TOFMS The AccuTOF GCx is the most advanced mass spectrometer system of the AccuTOF GC series products. The AccuTOF GCx provides solutions in a variety of applications. AccuTOF GCx The AccuTOF GCx is a superior gas chromatograph time-of-flight mass spectrometer (GCTOFMS) system that simultaneously accomplishes high-resolution analysis, high mass accuracy, and high-speed data acquisition. 1 AccuTOF GCx

AccuTOF GC AccuTOF GCv AccuTOF GCv 4G High performance Reliable determination of elemental composition The high-resolution and high mass accuracy AccuTOF GCx enables accurate elemental composition determination, which is a powerful tool for the qualitative analysis of unknown compounds and impurities. High-speed data acquisition The AccuTOF GCx performs high throughput analysis using Fast GC with its high-speed data acquisition capability (50 spectra/s). It also supports GCxGC for ultrahigh separation analysis. All-round A variety of ionization and sample introduction techniques While electron ionization (EI) is effective in acquiring structural information, detection of molecular ions is critical in qualitative analysis of unknown compounds. In addition to chemical ionization (CI), the AccuTOF GCx supports field ionization (FI) and field desorption (FD), which are powerful soft ionization techniques for molecular ion detection. The system also supports direct sample inlets for analysis of high boiling point compounds and rapid analysis. AccuTOF GCx 2

High performance Solutions provided by AccuTOF GCx Basic performance of AccuTOF GCx Elemental composition determination by accurate mass analysis Accurate results for reliable elemental composition determination The AccuTOF GCx consistently acquires high resolution, high mass accuracy, and high sensitivity data for long periods of time. It also achieves high mass accuracy from low intensity peaks, facilitating reliable determination of elemental compositions. Furthermore, the AccuTOF GCx, with its wide dynamic range, can easily analyze compound mixtures at different concentrations. High resolution High mass accuracy 1 ( at different concentrations, single ion ) 763.9546 [M-F 3 ] + R=11,424 Amount of injection Error [pg] [mda] 1: 0.1 0.26 2: 0.5 0.54 3: 1 0.34 4: 5-0.56 5: 10-0.04 6: 50 0.07 7: 100 0.21 8: 500-0.02 9: 1000 0.08 Perfluorotripentylamine High mass accuracy 2 ( single component, multiple ions ) Octafluoronaphthalene Stable mass accuracy over time Measured Calculated Error Inferred Unsaturation accurate mass exact mass [mda] formula 74.03625 74.03623 0.01 C 3 H 6 O 2 1.0 87.04395 87.04406-0.10 C 4 H 7 O 2 1.5 143.10639 143.10666-0.27 C 8 H 15 O 2 1.5 199.16917 199.16926-0.08 C 12 H 23 O 2 1.5 213.18507 213.18491 0.16 C 13 H 25 O 2 1.5 255.23156 255.23186-0.30 C 16 H 31 O 2 1.5 267.26802 267.26824-0.22 C 18 H 35 O 1.5 298.28640 298.28663-0.23 C 19 H 38 O 2 1.0 Mass error mda 5 3 1-1 -3-5 0 20 40 60 Injections 80 100 Methylstearate Octafluoronaphthalene Extracted ion chromatograms with high selectivity EIC of pentachlorobiphenyl in transformer oil QMS equivalent selectivity m/z 325.87994 ± 0.50 High resolution TOFMS selectivity m/z 325.87994 ± 0.05 The AccuTOF GCx, utilizing its constant high resolution operation, separates the target compound from matrices. This results in highly selective extracted ion chromatogram (EIC) with minimum effect of matrices for accurate quantitative analysis. The figure on the left shows EICs of PCB in transformer oil. The top EIC, with a mass range of ± 0.5 and low selectivity (equal to QMS), shows the effect of matrices in the transformer oil, failing to extract peaks of PCB. Meanwhile, the bottom EIC, with a mass range of ± 0.05 and high selectivity, eliminates the effect of matrices, showing only the peaks of PCB. 3 AccuTOF GCx

Basic performance of AccuTOF GCx High sensitivity / Wide dynamic range 100fg CV=5.2% IDL=16fg Linear response > 1x10 4 1 65745 2 67212 3 58394 4 70698 5 65897 6 65604 7 65994 8 65230 CV( ) 5.2 IDL(fg) 16 Correlation coefficient: 0.999 Sample: OFN: 0.1, 1, 10, 100, 1000 pg (n=3, each) EIC range: m/z 271.9867 ± 50 ppm Data recording rate: 0.5 s Calibration curve: logarithm Correlation coefficient: 0.999 100 fg of octafluoronaphthalene (OFN) was measured continuously 8 times. From the standard deviation of the EIC peak areas of OFN molecular ions, an instrument detection limit (IDL) of 16 fg was calculated. CV: Coefficient of variation IDL: Instrument detection limit A 4 order linear response was verified by measuring 100 fg to 1,000 pg of OFN. The wide dynamic range is critical for accurate qualitative/quantitative analysis. GCxGC analysis by ultrahigh speed data acquisition Accurate mass measurements are easily accomplished in GCxGC analysis, which requires ultrahigh speed data acquisition. This is especially effective for nontargeted qualitative analysis of trace components. 2nd column (polar) separation; Polarity 2-dimensional (2D) TICC of diesel fuel by GCxGC/TOFMS Wide mass range 1st column (nonpolar) separation; Boiling point Intensity FD mass spectrum of polystyrene 5200 2500 2250 2000 1750 1500 1250 1000 Oligomer analysis with direct MS The AccuTOF GCx, with a wide mass range and direct inlet system, can analyze samples with large molecular weights that are difficult to handle with GC. 750 500 250 0 3500 4000 4500 5000 5500 6000 6500 7000 7500 m/z AccuTOF GCx 4

All-round Solutions provided by AccuTOF GCx A variety of ionization and sample introduction techniques Why are multiple ionization techniques critical in GC/MS? EI, the most widely used ionization technique in GC/MS, is superior in sensitivity and reproducibility. It is also supported by an immense database. For any scientist using GC/MS in search of further information, what is ultimately important is molecular ion detection. EI, using a high ionization energy of 70 ev, generates numerous fragment ions, from which structural information is acquired. However, EI often fails to show strong molecular ion signals. Consequently, results of qualitative analysis may be incorrect if it solely relies on database search. Thus, it is critical in GC/MS analysis to enhance the accuracy of qualitative analysis Allyl(tert-butyl)dimethylsilane C 9 H 20 Si Mw : 156 by using various soft ionization techniques in addition to EI. Rerative Intensity EI CI In the example on the left, EI detected a small molecular ion, CI improved the molecular ion signal, while FI clearly shows the molecular ion, thus demonstrating its effectiveness for qualitative analysis. FI m/z CI Optional CI source comes with 3 different reagent gas lines, eliminating a lengthy process of reagent gas selection. FI and FD - Ideal soft ionization techniques for molecular weight determination FI and FD are ionization techniques with a low level of internal energy in molecular ions compared to EI and CI. Being soft ionization techniques with minimum fragmentation, FI and FD are ideal for molecular weight determination. FI ( Field Ionization ) The sample is introduced to the ion source through GC or a standard sample inlet system. Unlike CI, FI uses no reagent gas; no need to choose a reagent gas appropriate for the analyte. Tip of the FD probe FD ( Field Desorption ) The sample is applied onto the emitter and directly introduced to the system. Suitable for analysis of thermally labile compounds. Ideal for samples soluble in nonpolar solvents. Analyzes powder samples dispersible in solvents. Analyzes low- to mid-polar metal complexes. Analyzes high molecular weight samples not supported in GC/MS, such as polymer. Schematics of FI Anode (Emitter) GC column Gas phase molecules (neutrals) M+, M+H +,etc. Schematics of FD Anode (Emitter) Condensed phase molecules (neutrals) M +, M+H +,etc. Cathode Cathode Carbon emitter e- MS Carbon emitter Current e- MS 10kV 10kV In FI and FD, ionization occurs by the removal of electrons from neutrals via the action of a high electric field. 5 AccuTOF GCx

Various ionization and sample introduction techniques EI/FI/FD combination ion source (optional) Features Direct sample inlet system (optional) A single ion source supports EI (hard ionization) and FI/FD (soft ionization) techniques. Switching between EI and FI/FD is simple and quick. No need to change the ion source No need to change the GC-interface No need to break vacuum Effective use of EI/FI/FD: EI for qualitative analysis through library search FI for molecular weight determination GC/FI for type analysis of hydrocarbon samples FD for polymer analysis Accurate mass measurement 2 types of direct sample inlet probes for different applications EI and CI supported Platinum filament DEP (Direct Exposure Probe) Ideal for high boiling point/thermally unstable compounds The sample, which is dissolved in a solvent, is applied to the filament at the tip. DIP (Direct Insertion Probe) Ideal for high boiling point compounds/samples insoluble in solvent. A solid sample can be directly introduced to a dedicated glass sample tube for analysis. Glass sample tube Load-lock flange for DIP/DEP/FDP Ultrahigh separation analysis GCxGC (comprehensive 2D GC) GCxGC is an ultrahigh separation chromatography system designed to use 2 columns having different polarities, trap the eluted components using a modulator at the end of the 1st column at given intervals, and perform high-speed analysis of the trapped components in the 2nd column. GCxGC is a powerful capillary GC technique that features higher resolution chromatography than traditional capillary GC and is capable of high-sensitivity analysis of components by group. This technique requires a detector capable of high-speed data acquisition because the peak widths in the chromatograms are extremely sharp compared to traditional capillary GC. 1 st column: Ordinary capillary GC column Ex.: nonpolar to slightly polar stationary phase Detector: MS, etc. AccuTOF GCx High-speed data acquisition Always runs at high mass resolution Accurate mass measurement Injector 1 st column GC oven Modulator 2 nd column Modulator: Continuously repeats cold trapping and thermal desorption in every 3 to 7 seconds 2 nd column: Narrow bore capillary GC column Ex.: mid- to highly-polar stationary phase Peak width: 0.18 s 9 data points At a data acquisition speed of 50 spectra/s, the AccTOF GCx is capable of ultrahigh separation GCxGC analysis while maintaining ample data points across each chromatographic peak. AccuTOF GCx 6

User friendly Solutions provided by AccuTOF GCx User friendly software AccuTOF GCx main program msaxel 1 Auto tuning by Tuning Assistant Accomplishes high performance tuning without a lengthy manual process. Facilitates easy acquisition of optimum sensitivity/resolution in all ionization modes (EI, CI, FI, FD). 2 Powerful automated functions Auto drift correction Automatically performs drift correction on every spectrum in acquired data. Auto data conversion Automatically converts acquired data to netcdf format. Auto data transfer Automatically transfers acquired data to any location (PC for data analysis, etc.) 3 Interactive views Chromatograms and mass spectra on a single view. Elemental composition determination using exact mass on the same view. Other features, including isotopic peak pattern simulation, elemental composition determination, and calibration table editor, can be arranged as the user wishes. 7 AccuTOF GCx

User friendly software Software for simultaneous quantitative analysis of multiple components - Escrime Escrime is designed to calculate EIC peak areas, plot calibration curves, and determine quantitative values. With further manipulation of the resulting data including separate or collective editing of area calculation ranges, this software significantly speeds up the quantitation process. Peaks of the components contained in multiple samples or peaks of multiple components in a single sample can be presented on a single view. The peak area calculation ranges can be simultaneously changed, allowing for batch analysis of more than 150 samples. Blank 0.1 ppb 1 ppb 10 ppb Sample Polymer analysis software Polymerix Peak area range FD mostly forms ions that reflect the molecular weights of analytes through the formation of M +, [M+H] + and [M+Na] +, thus allowing for the calculation of the average molecular weight, degree of polymerization, and polydispersity from the m/z and the intensity of each peak. Polymerix is designed to calculate the average molecular weight, degree of polymerization, and polydispersity of polymers, and estimate the repeated structure and end groups from the data acquired in FD and FI. The example below is a visualization of the relative abundance (distribution) of each molecule in an ethylene oxide/propylene oxide (EO/PO) block copolymer. Polymerix easily calculates the average molecular weight and polydispersity. Molecular distribution of EO/PO block copolymer EO/PO block copolymer Repeat B, EO: (C 2 H 4 O) n CH 3 H OCH 2 CH 2 OCH 2 CH OCH 2 CH 2 OH x y z FD mass spectrum of EO/PO block copolymer Repeat A PO: (C 3 H 6 O) n Mn Mw Mz PD 1053.2 1077.1 1100.9 1.0 Mn : Number average molecular weight Mw : Weight average molecular weight Mz : Z average molecular weight PD : Polydispersity index (Mw/Mn) AccuTOF GCx 8

Automatic isolation valve Allows for changing/cleaning of the ion source while maintaining high vacuum in the mass analyzer High response detector High speed MCP detector unit with enhanced response Mass analyzer Flight tube with enhanced thermal stability; maintains high mass accuracy High vacuum system Fully integrated in the spectrometer console 2 turbo molecular pumps 2 rotary pumps 9 AccuTOF GCx

Standard EI ion source and ion transfer system Successfully eliminates 99.9% or more of He ions. Stable high-transmission-rate (=high sensitivity) ion transfer system maximizes detector lifetime. ( Patent JP3967694, US7034288, GB2404080 ) Analyte ions Helium ions Source magnet: Helps deflect low-mass carrier gas ions to maximize detector lifetime. Split lens: Guides helium ions to the intermediate slit where they are rejected by optimizing the lens 2 voltage balance. Split deflector: Corrects the trajectory of the analyte ions. Gas Chromatograph (Agilent 7890B) Digitizer Insures a 4 order dynamic range by the 4 GHz digitizer (ADC) and high performance data acquisition system Direct inlet flange Supports analysis by GC and direct sample introduction (DIP, DEP, FDP) techniques Reservoir Supports mass calibration samples and low boiling point compounds AccuTOF GCx 10

Easy linkage to various optional software NIST mass spectral library Escrime for batch quantitative analysis of multiple components Polymerix * 1 for analysis of polymers/ hydrocarbon types GC Image * 2 for GCxGC analysis * 1:Sierra Analytics. Inc. * 2 :GC Image. LLC AccuTOF GCx AccuTOF GCx + autosampler AccuTOF GCx + autosampler + direct probe Standard configuration Ion source Analyzer Ion detector Data acquisition system Vacuum system Gas chromatograph Data system Electron ionization Reflectron time-of-flight mass analyzer Dual microchannel plate continuous averager 2 turbo molecular pumps 2 rotary pumps Agilent 7890B Personal computer, LCD monitor, laser printer, rewritable DVD drive, Windows operating system, data system software (msaxel) Optional attachments Direct insertion probe Direct exposure probe CI source FD/FI combination source EI/FI/FD combination source FD sampling tool FD sampling tool Installation requirements Example of an installation room Power supply Main console Gas chromatograph Data system Grounding Single phase AC190-210 V or 220 240 V, 20 A, 50-60 Hz Single phase, AC 200 V or 220 V or 230 V or 240 V, 20 A AC100-120 V, 15 A, 50-60 Hz AC200-240 V, 7.5 A, 50-60 Hz 100 Ω or less Gas Nitrogen gas For purging ion source 0.5 to 0.6 MPa, 97 % or better purity and analyzer For driving valves Helium gas For gas chromatograph 0.5 to 0.68 MPa, 99.999 % or better purity, 0.5ppm or less hydrocarbon content Installation room Varying magnetic field 1 10-6 T or less Static magnetic field 5 10-4 T or less Floor vibration Amplitude (p-p) 25 μm or less, acceleration 0.1 m/s 2 or less Room temperature 20 to 27 C Temperature fluctuation ±3 C / h or less Humidity 30 to 70 % (no condensation) Maximum heat generation 25,776 kj/h (calculated from maximum power consumptions of mass spectrometer, gas chromatograph, and data system) Ventilation facility Ventilation facility for rotary pump exhaust is required Power supply requirement depends on a specific configuration sold in each territory. Please inquire at a local sales office for details. Symbol Unit Width Depth Height Weight (mm) (mm) (mm) (kg) Note A Mass spectrometer 1,172 724 1,224 340 B Gas chromatograph 582 513 488 49 C Computer 168 450 456 15 C TFT LCD monitor 443 220 555 9.2 D Laser printer 385 279 261 6 From the rear of the basic unit of the gas chromatograph, high-temperature air is exhausted. Never place anything behind the unit. 200mm space between rear panel of instrument and wall is neces-sary at least. Exhaust line for rotary pump is required. A table for PC and printer is not included in the standard configuration of AccuTOF GCx. *Specifications subject to change without prior notice. No.2301E549C(Bn)