

Handheld XRF Alloy Analyzer
手持式合金 XRF 分析仪
- SKU POX-0001
- Portable XRF
- CE (to be confirmed)
- Radiation safety certification (to be confirmed)
- ISO 9001 manufacturing (to be confirmed)
Price on request — FOB / CIF quoted per order
Prices depend on configuration, quantity and destination port.
Key specifications
| Element range | Mg to U |
|---|---|
| Spot size | 8–10 mm standard |
| Measurement time | 1–20 s |
| Detector | silicon drift detector |
| Alloy library | hundreds of grades |
| X-ray tube | 40–50 kV, 4–10 W |
By Lab Manufacturers China Technical TeamLast reviewed Standards: US EPA Method 6200 Field portable XRF for soil, ISO 13196 Soil quality — Screening of selected elements by EDXRF, IEC 62321 Determination of restricted substances in electrotechnical products
What is the Handheld XRF Alloy Analyzer?
A handheld XRF alloy analyzer identifies metal grades and verifies material certificates on site. It is chosen for positive material identification and routine inspection in fabrication, welding, petrochemical, aerospace and power plant work.
What is the Handheld XRF Alloy Analyzer?
A handheld XRF alloy analyzer identifies metal grades and verifies material certificates on site. It is chosen for positive material identification and routine inspection in fabrication, welding, petrochemical, aerospace and power plant work.
Overview
This analyzer uses a large measurement spot, typically 8 to 10 millimetres, and a comprehensive library of alloy grades covering stainless steels, nickel alloys, aluminum, copper, titanium and specialty metals. It measures major and minor alloying elements such as chromium, nickel, molybdenum, copper and titanium, and identifies the grade within seconds. Element libraries and grade matching are stored onboard, and the analyzer can compare a measured composition against a specified grade or certificate. Optional features include a small spot for welds and narrow features, a stand for repeatable measurement, a camera for documentation and Bluetooth or Wi-Fi data transfer. Accuracy depends on clean, flat surfaces, and heavy or coated components may need grinding or surface preparation before measurement.
How does it work?
A small X-ray tube in the analyzer irradiates the sample, and a silicon drift detector measures the energies of the resulting characteristic X-rays. Electronics build a spectrum and calibrated software reports element concentrations. Because the instrument is small and battery powered, power is limited and measurement times are longer than on benchtop systems, and light elements below magnesium or aluminum cannot be measured in air. Fundamental parameter or empirical calibrations are stored onboard, and an internal shutter or reference standard verifies performance. The analyzer is pressed against the sample or mounted on a stand for extended measurements. Results depend strongly on surface condition, so cleaning, flatness and representative sampling are important in the field.
What are the key features?
- Large 8 to 10 mm spot for alloy analysis
- Comprehensive alloy grade library onboard
- Grade identification in seconds
- Comparison against certificates and specifications
- Optional small spot for welds and narrow areas
- Stand, camera and wireless data transfer options
What are the technical specifications?
A typical handheld xrf alloy analyzer configuration offers element range of Mg to U, spot size of 8–10 mm standard, measurement time of 1–20 s, detector of silicon drift detector, alloy library of hundreds of grades and X-ray tube of 40–50 kV, 4–10 W. Values are indicative of the product class; the exact figures for each configuration are confirmed on the quotation and the calibration documents supplied with the instrument.
Which applications is it used for?
The Handheld XRF Alloy Analyzer is used in positive material identification on pipework, welder qualification and weld verification, scrap and incoming metal verification and aerospace and power plant component inspection. Across the wider Portable XRF class, laboratories also deploy it for alloy grade identification and positive material verification, soil, sediment and environmental field screening and mining exploration and ore grade estimation.
Which standards and certifications apply?
Relevant standards and methods include US EPA Method 6200 Field portable XRF for soil, ISO 13196 Soil quality — Screening of selected elements by EDXRF, IEC 62321 Determination of restricted substances in electrotechnical products, ASTM F2617 Identification of alloy grades by handheld XRF, ISO 3497 Metallic coatings — X-ray spectrometric thickness and IEC 61010-2-091. Certification candidates for this model are CE, Radiation safety certification and ISO 9001 manufacturing; each is to be confirmed for the specific configuration before shipment, and certificates are supplied only where they have been issued.
Portable XRF units are X-ray devices and require operator training, safe work procedures and, in many jurisdictions, registration or a licence. Never point the device at people, and use the shield or stand where possible. Radiation dose to the operator is very low during normal use but must be monitored and recorded. Surface contamination, paint, rust and coatings bias results, so samples are cleaned or measured through calibrated modes. Repeatability depends on sample positioning and measurement time. Battery management, detector temperature stabilization and periodic verification with a reference standard are part of routine use, and results are traceable only when calibration and operator competence are documented.
How do I select the right Handheld XRF Alloy Analyzer?
Select an alloy analyzer for on-site grade identification and certificate verification when the component cannot go to the laboratory. Specify the alloy families, required grades and whether a small spot or stand is needed. Confirm that the calibration covers your alloys and that the library matches the standards or specifications you must satisfy.
How does it compare with other Portable XRF variants?
Select a portable XRF analyzer by the application because calibration, spot size and features differ. Alloy analyzers use a large spot and comprehensive alloy libraries with grade identification. Soil and environmental analyzers use calibrated methods for regulatory elements and may include a stand and GPS. Mining analyzers optimize for light and heavy elements in ores and add pathfinder calibrations. RoHS analyzers target restricted elements in plastics and electronics with polymer-specific calibrations. Lead paint analyzers use a small spot and short measurement for compliance testing. Scrap sorting analyzers emphasize speed and grade identification. Confirm element range, spot size, calibration availability, battery life and whether a stand, printer and radiation safety features are included.
Full specifications
| Element range | Mg to U |
|---|---|
| Spot size | 8–10 mm standard |
| Measurement time | 1–20 s |
| Detector | silicon drift detector |
| Alloy library | hundreds of grades |
| X-ray tube | 40–50 kV, 4–10 W |
| Battery life | 6–12 h typical use |
| Weight | 1.3–2.0 kg |
| Display | touchscreen with camera |
| Connectivity | Bluetooth, Wi-Fi, USB |
Indicative values for this product class. Final specifications are confirmed on the quotation and in the calibration documents supplied with the instrument.
Applications
- Positive material identification on pipework
- Welder qualification and weld verification
- Scrap and incoming metal verification
- Aerospace and power plant component inspection
Key features
- Large 8 to 10 mm spot for alloy analysis
- Comprehensive alloy grade library onboard
- Grade identification in seconds
- Comparison against certificates and specifications
- Optional small spot for welds and narrow areas
- Stand, camera and wireless data transfer options
Frequently asked questions about Handheld XRF Alloy Analyzer
It measures the concentrations of alloying elements and compares them with stored grade specifications and libraries, including standard designations and common trade grades. Matching algorithms account for measurement uncertainty. The result reports the most likely grade and the measured composition for verification.
No, carbon is far too light for portable XRF in air. Carbon content must be determined by combustion analysis or optical emission spectrometry. Handheld analyzers can identify many low-alloy and stainless grades by their chromium, nickel, molybdenum and other metallic elements, but carbon-based gradings need laboratory methods.
Paint, rust, scale and plating attenuate characteristic X-rays, especially from light elements, and can add signals from coating elements. Grinding or wire-brushing to clean metal improves accuracy and reproducibility. Rough surfaces also change the effective measurement geometry and scatter more radiation.
For many alloy and screening applications portable XRF agrees within a few percent relative with laboratory results when calibration and surface preparation are appropriate. Accuracy is lower for light elements, trace levels and heterogeneous samples. Field results are usually used for screening and sorting, with laboratory confirmation for critical acceptance decisions.
Most handheld analyzers measure from magnesium or aluminum to uranium. Some models with vacuum or helium purge and thin windows can reach sodium. Elements below sodium are not measurable. Light-element performance also depends on the detector window, tube voltage and the calibration selected.
Samples should be cleaned of soil, paint, oil and corrosion, and the measured surface should be flat and representative. Rough or coated surfaces bias results, especially for light elements. For soil, sieving and drying followed by measurement in a sample cup improve precision and comparability between operators.
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