Agilent G2350A Atomic Emission Detector (AED)

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Agilent G0A Atomic Emission Detector (AED) Specifications Elements Specifications Wavelength Minimum Detectable Selectivity Dynamic Measurement Group Element(s) (nm) Level (pg/sec) Over Carbon Range Compound 1 Carbon 19 1 1 x E4 t-butyl disulfide Sulfur 181 10000 1 x E4 t-butyl disulfide Nitrogen 174 0 00 x E4 Nitrobenzene Hydrogen 486 4 x E t-butyl disulfide Chlorine 479 0 000 1 x E4 1,,4-Trichlorobenzene Phosphorus 178 000 1 x E Triethyl phosphate 4 Oxygen 171 1 10 000 x E Nitrobenzene 1 Uses molecular band instead of atomic emission line Experimental Conditions GC Injection Port Split/splitless GC Injector Temperature 0 ºC GC Column Part no. 19091Z-01, HP-1, m x 0 mm x 0.17 mm GC Inlet Conditions Nominal pressure = 0 psi, nominal split flow = 100 ml/min GC Temperature Program 60 C to 180 C at 0 C/min Injected Volume 1 ml Checkout Sample Part no. 800-067 AED Reagent Gas(es) Group 1 Group Group Group 4 O O H H and auxiliary gas (10% CH 4 /90% N ) AED Spectrometer Purge 0. L/min AED Transfer Line Temperature 0 C AED Cavity Temperature 0 C AED Data Rate Hz Ambient Temperature C (Recommended ambient temperature 1 C to C) Instrument performance for minimum detectable level and selectivity for the above elements is verified at installation using a checkout sample containing the above compounds. Detection of the above elements can be done in a sequence using four separate injections.

1 1. 4-Flouroanisole 6. Triethylphosphate. 1-Bromohexane 7. tert-butyl disulfide. Tetraethylorthosilicate 8. 1,,4-Trichlorobenzene 4. n-decane (perdeuterated) 9. n-dodecane. Nitrobenzene 4 6 7 8 9 C 7 H O N 7 S 8 Cl 6 P Br 1 F Si 4 D Figure 1. Multielement analysis of the AED checkout sample (part no. 800-067). Instrument performance can be verified at installation for elements C, H, O, N, S, Cl, and P using four sequential injections. Element chromatograms for Br, F, Si, and deuterium, which require three additional injections, are also shown but are not included as part of instrument verification at installation.

G0A AED Element Groupings The Agilent G60AA gas chromatograph-atomic emission detector (GC-AED) Agilent ChemStation software allows for the following element groupings (elements that can be detected simultaneously) for the G0A AED. Each grouping represents a specific combination of the light spectrum region detected and the reagent gas(es) used. Other elements and element groupings may be possible. Contact Agilent Technologies, Inc. to inquire regarding any updated capabilities. Group Element(s) or Isotope Wavelength (nm) Reagent Gas(es) 1 Carbon 19 O Iodine 18 Sulfur 181 Carbon 179 1 Nitrogen 174 Carbon 496 O Hydrogen 486 Chlorine 479 Bromine 478 Phosphorus 178 H 4 Oxygen 1711 H and 10% CH4/90% N Nitrogen 88 1 O, H, and Methane 6 Fluorine 690 H 7 Iodine 06 O 8 Chlorine 87 O Carbon 84 Bromine 87 9 Boron 0 O 10 Selenium 196 H Carbon 19 Arsenic 189 Phosphorus 186 Sulfur 181 Phosphorus 178 11 Germanium 6 O Lead 61 Manganese 9 Mercury 4 Silicon Carbon 48 1 Tin 71 O Germanium 6 Carbon 64 1 Lead 61 Manganese 9 Mercury 4 Silicon 1 Tin 0 O Iron 0 Nickel 01 Tin 01 Vanadium 9 14 Tin 6 O 1 Lead 406 O 16 Carbon-1 177 1 O Carbon-1 177 1 17 Nitrogen-14 41 1 O, H, and Methane Nitrogen-1 40 1 18 Hydrogen 66 O Deuterium 66 1 Uses molecular band instead of atomic emission line. "He High Flow" For certain element groupings, additional helium carrier makeup gas flow is added. Performance for elements offered in multiple groups may vary depending on the reagent gas(es) used.

G0A AED Characteristics GC-AED Interface A heated, insulated, and thermostatted tube contains fused silica tubing to carry effluent from the gas chromatograph (GC) to the microwave cavity. Maximum temperature: 40 ºC Microwave Generator Frequency:,40 MHz Power level: 70 watts Power tube: M11 magnetron Tuning: None required Stray emission: < mw/cm at cm Coupling to cavity: 7 6 mm Microwave Plasma Cavity: Reentrant design Discharge tube: Water-cooled, walls, 0.1-mm thick Ignition: Automatic Exhaust: From discharge tube into a purged chamber to prevent air diffusion Spectrometer Type: 0.-m Czerny-Turner Wavelengths: 171 to 87 nm All wavelength regions are calibrated automatically for position and focus at initial turn-on and whenever excessive drift is detected. The current wavelength setting is fine-tuned at the start of each run. Signal Processing Raw data consists of 0 simultaneous outputs from a photodiode array (PDA). This data can be read at a rate of up to 10 times per second (10 Hz), although G0A AED performance specifications are only valid at the data rate of Hz. The G60AA GC-AED ChemStation software can display, in real time, this spectral data collected by the PDA as well as the element chromatograms generated from this data. For the elements selected, chromatographic data is saved for evaluation. The spectral data may also be saved and examined later at a particular chromatographic peak retention time. The G60AA GC-AED ChemStation software provides data acquisition, control, and data evaluation for a single GC-AED system. Data acquisition, control, and data evaluation of additional instruments using add-on software are not supported. Environmental Operating Extremes 10 ºC to 40 ºC. Maximum relative humidity 80% for temperatures up to 1 C, decreasing linearly to 0% relative humidity at 40 C. Storage Extremes 40 ºC to 6 ºC. (Cooling water must be drained from the AED if below 0 ºC.) Radiated Emissions CE-mark with emissions level A. Safety Certifications CSA certified, NRTL listed, self- certified in accordance with IEC 1010-1. Instrument Dimensions and Weight The Agilent G0A AED weighs 7 kg (80 lb) and measures cm wide 7 cm deep 41 cm high (1 17 in.). At least 1 cm ( in.) must be allowed for the transfer line between the GC and AED. Space considerations for a complete AED system must take into account the injector/sampler, GC, data system, printer, and clearances for maintenance. Allow 40 cm width 87 cm depth 100 cm height (1 7 in.). Total system weight is about 19 kg (0 lb). At least 9 cm (1 in.) must be allowed behind the GC to dissipate oven exhaust air and provide access for maintenance. Power Systems with 0/40 Vac power require one 1-A circuit for the G0A AED plus one or more 10-A circuits for computer and peripherals, which must be dedicated to the system. Systems with 100/10 Vac power require one 0-A circuit for the G0A AED plus one or more 10-A circuits for computer and peripherals, which must be dedicated to the system. Consult the GC and automatic liquid sampler documentation for their power requirements. Voltage requirements are +%, 10%, 0 to 6 Hz (,00 VA maximum), seven outlets (minimum). 4

Gas Requirements Name Purity Description Helium 99.9999% For GC carrier and AED plasma. This purity can be achieved using 99.999% gas with a gas purifier. The flow rate required is about 100 ml/min. Some elements require a higher flow rate of about 40 ml/min. Nitrogen 99.99% Spectrometer purge gas (must be dry). The user is advised to provide a hydrocarbon and a moisture trap. The purge gas flow requirements are nominally 0. L/min. Hydrogen 99.997% AED reagent gas Oxygen 99.997% AED reagent gas 10% CH 4 /90% N Mixture 99.99% AED reagent gas typically used for oxygen analysis. Purity requirement is on original gases for reagent gas mixture. Methane 99.99% AED reagent gas typically used for nitrogen (88 nm only) and nitrogen-1 analysis Note: The G0A AED can only be plumbed for three reagent gases. Each reagent gas flows in typically 0 ml/min. The user must decide whether to plumb for 10% CH 4 /90% N (to detect oxygen 171) or methane (to detect nitrogen 88 nm and nitrogen-1). Cooling Water Requirements Approximately 600 ml of distilled water is required for a closed, self-contained cooling water system. It requires periodic refilling. GC-AED System Requirements A functional GC-AED system requires: G0A AED G60AA GC-AED ChemStation software and Microsoft Windows NT 4.0 Agilent 6890 Series, or 6890 Plus GC or 890 Series II, with: Split/splitless inlet GC-AED interface Other Agilent GC options may also be ordered, including (but not limited to): One other inlet Up to two standard Agilent GC detectors (coexecution with MSD not supported) Data system (IBM-compatible ISA or EISA PC) with a minimum configuration of Pentium 1, 48 MB of RAM,.-in. floppy disk drive, 40-MB hard disk drive, CD-ROM, Super VGA or Ultra VGA monitor GPIB data communications for all AED system components Note: Any customer-supplied GC must be clean, leak-free, and in good working order. A 890 Series II GC must have ROM part no. 0890-8000 or higher. Although not required, a fully automated GC-AED system typically includes: Automatic liquid sampler Printer

Agilent shall not be liable for errors contained herein or for incidental or consequential damages in connection with the furnishing, performance, or use of this material. Information, descriptions, and specifications in this publication are subject to change without notice. Copyright 000 Agilent Technologies, Inc. Printed in the USA /000 966-4141E s