The Z-901 features an all-new ergonomic design, a 0.5 lb. weight reduction down to about 3.5 lbs. (1.6 kg), improved heat dissipation, and completely updated software and processing electronics. General alloy testing for scrap sorting, PMI/NDT or quality assurance. Does not measure carbon. The Z-901 also leads the way featuring the first-ever “dual burn” technology. Users can test with the 901 either using an “air burn” method or using argon-purge for applications requiring higher precision and lower limits of detection.
A single spectrometer to covers the wavelength range of 200 – 440 nm. The instrument is factory calibrated for a suite of 15-20 elements, depending on application. Or operators may use the accompanying Profile Builder software package to customize to specific elements, their own calibration standards, and spectral processing. The Z-901 can be set up to measure the emissions of any element except Li, Na, H, C, N, O, Cl, Br, F, Ce, Rb, S. Common factory-calibrated Z-901 applications include alloy, mining and environmental analysis, typically for beryllium in soil.
Display : 2.7″ high brightness, color touchscreen, readable in all lighting conditions. Rear facing display for easy results viewing. Power : On-board rechargeable Li-ion battery, rechargeable inside device or with external charger, AC power. Processing Electronics : ARM Quad Cortex -A53 1.2 GHz Memory: 2 GB LPDDR3, eMMC 16 GB Data Storage : Results Storage: 8 GB SD Connectivity : Built on Google’s Android platform for real-time data exporting, including built-in Wifi, Bluetooth, GPS and USB to connect to virtually any information management system. Sample Viewing : On-board, auto-focus camera/video for viewing sample before and during analysis, laser spot finder to show where laser strikes sample. Includes 2nd “macro camera” for viewing sample, reading 3d bar-codes for photodocumentation and report generation. Laser Raster : On-board Y stage for rastering laser to discrete locations for targeted analysis or averaging. Typically, raster in 3 locations. Excitation Source : 5-6 mJ/pulse, 50 Hz repetition rate, 1064 nm laser source Operation: Air Burn. Optional “Dual Burn” Technology available : The Z-9 operates in air-burn environment, no argon purge required. Users may add argon-purge at time of purchase or later, to operate with either air or argon purge capability. Calibration Check : 316 stainless steel standard for automated calibration and wavelength scale validation. Drift Correction : On-board automated drift correction software with factory provided or user provided reference materials. Grade Library (alloy) : 500+ grades, multi-library support, libraries may be added/edited with PC software package (ProfileBuilder). Regulatory : CE, RoHS, USFDA registered. Class 3b laser. Sample sensor on board, allows for operation under Class 1 conditions, subject to local LSO approval. Spectrometer/Range : 200 nm – 420 nm Analytical Range : Typically, 15-20 elements calibrated, specific elements depending on alloy base. Security : Password protected usage (user level) and internal settings (admin) Dimensions : 10.75" x 2.375" x 8.625" Weight : 3.5 lbs. with battery
Gas Chromatography is a kind of instrument for qualitative and quantitative analysis of multicomponent complex mixture by using chromatographic separation technology and detection technology. Generally, it can be used to analyze the thermal stable organic compounds in soil, such as volatile organic compounds, organic chlorine, organic phosphorus, polycyclic aromatic hydrocarbons, phthalates, etc.
Gas Chromatography is a kind of instrument for qualitative and quantitative analysis of multicomponent complex mixture by using chromatographic separation technology and detection technology. Generally, it can be used to analyze the thermal stable organic compounds in soil, such as volatile organic compounds, organic chlorine, organic phosphorus, polycyclic aromatic hydrocarbons, phthalates, etc.
Liquid Chromatography uses the mixture in liquid-solid or immiscible between the two liquid distribution ratio differences, the mix of the first separation, then analysis and identification of the instrument.