Inductively coupled plasma mass spectrometers (ICP-MS) utilize inductively coupled plasma for sample ionization and an MS for ion separation and quantification. The low detection limits and high productivity possible with ICP-MS are particularly useful for trace metal analysis and environmental testing. Common components of an ICP-MS system include a sample introduction system, an ion source, a vacuum system, a collision reaction cell, ion optics, a mass spectrometer (often a quadrupole), and a detector. An analytical working range of nine orders of magnitude, detection limits below the ppt range, and aptitude for isotopic analysis are hallmarks of ICP-MS. ICP-MS instruments are commonly configured for routine analyses, high-matrix interference samples, or specific applications, such as work in the semiconductor industry or medical and forensic toxicology fields. Also, be sure to consider any desired customization options, such as chromatographic coupling or use with organic solvents.
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| Company | GBC Scientific Equipment | GBC Scientific Equipment |
| Item | OptiMass 9600 ICP-TOFMS | OptiMass 9500 ICP-TOFMS |
| Price | | |
| Description | The OptiMass 9600 ICP Time-of-Flight Mass Spectrometer (ICP-TOFMS) builds on the success of the OptiMass 9500 and provides advanced Octopole Collision Cell (OCC) technology for superior interference management. This third generation bench top ICP-TOFMS overcomes the major limitations associated withThe OptiMass 9600 ICP Time-of-Flight Mass Spectrometer (ICP-TOFMS) builds on the success of the OptiMass 9500 and provides advanced Octopole Collision Cell (OCC) technology for superior interference management. This third generation bench top ICP-TOFMS overcomes the major limitations associated with quadrupole ICP-MS instrumentation. Detection limits equivalent to those achievable with a quadrupole instrument can be achieved for amu 1 to 260 within seconds. This inherent speed allows higher sample throughput with the use of conventional sample introduction systems. The high speed data collection rate enables transient signals to be sampled 30,000 times per second and 50 integrated full mass spectra to be displayed every second. Features include unique retrospective semi-quantitative (RSQ) analysis, multielemental spectral fingerprinting capability for forensic science, laser ablation ICP-MS capability, and Octopole Collision Cell (OCC) technology for superior interference management.... Read More | The OptiMass 9500 ICP Time-of-Flight Mass Spectrometer (ICP-TOFMS) further redefines the state-of-the-art in elemental analysis. This second generation bench top ICP-TOFMS overcomes the major limitations associated with quadrupole ICP-MS instrumentation. Detection limits equivalent to those The OptiMass 9500 ICP Time-of-Flight Mass Spectrometer (ICP-TOFMS) further redefines the state-of-the-art in elemental analysis. This second generation bench top ICP-TOFMS overcomes the major limitations associated with quadrupole ICP-MS instrumentation. Detection limits equivalent to those achievable with a quadrupole instrument can be achieved for amu 1 to 260 within seconds. This inherent speed allows higher sample throughput with the use of conventional sample introduction systems. The high speed data collection rate enables transient signals to be sampled 30,000 times per second and 50 integrated full mass spectra to be displayed every second, opening up a range of applications previously hindered by the slow sequential nature of quadrupole or magnetic sector field mass spectrometers. Features include unique retrospective semi-quantitative (RSQ) analysis, multielemental spectral fingerprinting capability for forensic science, and laser ablation ICP-MS capability for rapid multielement analysis of solid samples.... Read More |
| Optical System | Orthogonal acceleration Time-of-Flight with Octopole Collision Cell (OCC); RF Generator: solid state 27.12 MHz, 500–1500W with auto tuning; concentric glass nebulizer with thermostatted glass jacketed spray chamber; single piece quartz torch; mass flow regulation on all gas lines (<12 L/min total argon); computer controlled four-channel 12-roller peristaltic pump | Orthogonal acceleration Time-of-Flight; RF Generator: solid state 27.12 MHz, 500–1500W with auto tuning; concentric glass nebulizer with thermostatted glass jacketed spray chamber; single piece quartz torch; mass flow regulation on all gas lines (<12 L/min total argon); computer controlled four-channel 12-roller peristaltic pump |
| Mass Analyzer | Orthogonal acceleration Time-of-Flight (TOF) with Octopole Collision Cell (OCC); mass range 1–260 u; resolution 0.4 u (R =1200 at 238U); 30,000 full spectra/s | Orthogonal acceleration Time-of-Flight (TOF); mass range 1–260 u; resolution 0.4 u (R =1200 at 238U); 30,000 full spectra/s |
| Sensitivity | Parts per trillion (ppt) detection limits; mass range 1–260 amu; >30,000 full spectra per second; resolution typically 1,200 or greater for 238U (0.4 amu) | Parts per trillion (ppt) detection limits; mass range 1–260 amu; >30,000 full spectra per second; resolution typically 1,200 or greater for 238U (0.4 amu) |
| Dynamic Range | Mass range 1 to 260 amu | Mass range 1 to 260 amu |
| Applications | Environmental analysis, forensic science, laser ablation solid sampling, geochemistry, food safety | Environmental analysis, forensic science, laser ablation solid sampling, geochemistry, food safety |
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