2015 SPECTRO ARCOS FHM22

The inductively coupled plasma optical emission spectrometer ( [ICP-OES](https://www.spectro.com/products/icp-oes-aes-spectrometers) ) SPECTRO ARCOS excels in industrial and academic applications for more advanced processing of metals, chemicals, petrochemicals and other materials. - The computer has the updated version according to the model of the instrument available (Spectro Smart Studio 6.1.951.0) - The instrument has a usage time of less than 100 hours of measurement The periscopeless MultiView mechanism allows the operator to literally "convert" a radial viewing instrument to an axial viewing device, or vice versa, in 90 seconds or less. MultiView now includes double-sided plasma observation. The two optical interfaces add sensitivity and eliminate matrix compatibility/contamination issues. Linear array detectors, based on complementary metal oxide semiconductor (CMOS) technology, eliminate blooming, read low trace element signals even in the vicinity of intense array lines, offer high dynamic range and eliminate on-chip cooling. The SPECTRO ARCOS design ensures exceptionally low operating costs over a long and reliable life. And it has a modern, ergonomic chassis with proven features like purge-free UV-PLUS sealed gas purification technology, patented air cooling, optional smart valve system, and portable video camera for remote monitoring. The new SPECTRO ARCOS is available in six versions, depending on the choice of plasma display technology and elemental wavelength range. [ICP-OES](https://www.spectro.com/products/icp-oes-aes-spectrometers) / [ICP-AES](https://www.spectro.com/products/icp-oes-aes -spectrometers) Application reports - ICP-14: Determination of Trace Elements in Platinum - ICP-16: Generation of ICP-OES hydrides - ICP-18: Determination of trace elements in sulfuric acid with ICP-OES - ICP-19: application of prominent spectral lines for ICP-OES in the range of 125-190 nm - ICP-20: Analysis of oils by ICP-OES seen axially - ICP-21: Determination of Trace Elements in Gold - ICP-22: Determination of trace elements in palladium - ICP-23: Vacuum UV Wavelength Coverage for ICP-OES - ICP-24: Cobalt analysis using the SPECTRO ICP-OES - ICP-25: Nickel Analysis using the SPECTRO ICP-OES - ICP-26: Determination of Sulfur in Oils using the SPECTRO ICP-OES - ICP-27: Determination of chlorine and PCB in oils: new possibilities for ICP-OES? - ICP-28: Comparison of modified Lichte and ultrasonic nebulizer for the introduction of drinking water samples in ICP-OES - ICP-36: Analysis of Medical Saline Solutions - ICP-37: Analysis of oils using ICP-OES with radial plasma visualization - ICP-40: Analysis of Nafta - ICP-52: Analysis of Biofuels by Mixed Argon-Gas and Radial Plasma Observation - ICP-54: Analysis of mixtures of ethanol and E85 gasoline using radial ICP-OES - ICP-55: Analysis of biodiesel using ICP-OES with radial plasma observation - ICP-53: Analysis of Drinking Water by ICP-OES with Axial Observation of Plasma - ICP-60: Oil analysis using ICP-OES with radial plasma observation - ICP-89: Analysis of aqueous solutions by ICP-OES with observation of radial plasma - ICP-62: Analysis of 200 g/L NaCl solutions by ICP-OES with radial plasma observation - ICP-63: Analysis of soil and sewage sludge by ICP-OES with observation of radial plasma - ICP-65: Molybdenum Oxide Analysis by ICP-OES with Axial Plasma Observation - ICP-59-AB: Analysis of Wine by Direct Aspiration and Radial ICP-OES - ICP-66: Analysis of high purity copper by ICP-OES with radial plasma observation - ICP-67: Analysis of high purity zinc using ICP-OES with radial plasma observation - ICP-68: Analysis of steels using ICP-OES with radial plasma observation - ICP-69: High Performance Analysis of Oils - ICP-70: 22 element analysis per US EPA guidelines with SPECTRO ARCOS 165 - ICP-78: Comparison of radial and axial plasma observation in ICP-OES - ICP-79: Analysis of high purity copper using ETV-ICP-OES with axial plasma observation - ICP-95-AB: Analysis of Milk Powder using ICP-OES - ICP-98-AB: Analysis of soybean meal using ICP-OES - ICP-88-AB: Oil analysis using ICP-OES with radial plasma observation - ICP-112-AB: Compliance with 21 CFR Part 11 using SPECTRO ICP-OES analyzers with Smart Analyzer Vision software - ICP-113: Complying with the new ICH and USP regulations for elemental impurities in pharmaceutical products using the SPECTRO ARCOS with axial plasma observation - ICP-116: Multi-element analysis of sediments for ecohydrological research by ICP-OES with radial and axial plasma observation - ICP-135-AB: High-precision determination of the main components of precious metals using ICP-OES and the bracketing technique - ICP-136-AN: Analysis of impurities in high purity precious metals with axial plasma observation - ICP-137-AN: Detection limits in high purity aluminum by axial plasma observation - ICP-138-AN: Detection limits in high purity nickel by axial plasma observation - ICP-140-AN: Detection limits in high purity cobalt by axial plasma observation - ICP-143: Analysis of Lithium Composite Oxide Cathode Materials by ICP-OES with Radial Plasma Observation - ICP-144: Analysis of plant materials using ETV-ICP-OES with axial plasma observation - ICP-149: Analysis of Trace Elements in Diesel Fuels by ICP-OES Using Double Sided Plasma Observation - ICP-150: analysis of 200 g/L NaCl solutions by ICP-OES with double sided plasma observation - ICP-151: Analysis of Chlorine in NiSO4 - ICP-152: Analysis of aqueous solutions and water by ICP-OES with axial plasma observation - ICP-153: Analysis of Aqueous Solutions and Water by ICP-OES with Single-Sided and Two-Sided Plasma Observation - ICP-155: Trace analysis in line-rich tungsten matrix using high-resolution ICP-OES - ICP-154: Analysis of components based on graphite and carbon using ETV-ICP-OES - ICP-158: Palm Oil Analysis - ICP-160: Dynamic measurement correction: an efficient option for ICP sample sequences - ICP-164: Detection limits in lithium hydroxide matrix with double-sided interface plasma observation