SPECIFICATIONS
Testing Area	1.5mm Diameter
Measuring Depth	15-20 Microns
Tube Life Expectancy	8,000 Hours or 48,000 Tests
Tube Specification	40K V, 200uA Anode for Alloy
Detector	7mm2 PiN Diode Detector (active area), 190eV resolution FQHM at 5.95Mn K-Alpha Line
Battery Life	Includes AC Adapter and 2 Rechargeable Batteries. 6 Hour Battery Life Per Battery
Certifications & Compliance	CE, RoHS, USFDA, Canada RED Act
Product Weight	3.3 Lbs
Product Dimensions	7.25 x 10.5 x 4.5 Inches
Computer Data Transfer	WIFI, Bluetooth, USB Connectivity to Most Devices
Calibration Check	Very Quick – Internal Shutter is 316 Stainless for Totally Automated Calibration and Energy Scale Validation
Environmental Temp. Range	10°F to 130°F at 25% Duty Cycle
Security	Password Protected Usage (user level) and Internal Settings (admin)

SPECIFICATIONS

Testing Area

1.5mm Diameter

Measuring Depth

15-20 Microns

Tube Life Expectancy

8,000 Hours or 48,000 Tests

Tube Specification

40K V, 200uA Anode for Alloy

Detector

7mm2 PiN Diode Detector (active area), 190eV resolution FQHM at 5.95Mn K-Alpha Line

Battery Life

Includes AC Adapter and 2 Rechargeable Batteries. 6 Hour Battery Life Per Battery

Certifications & Compliance

CE, RoHS, USFDA, Canada RED Act

Product Weight

3.3 Lbs

Product Dimensions

7.25 x 10.5 x 4.5 Inches

Computer Data Transfer

WIFI, Bluetooth, USB Connectivity to Most Devices

Calibration Check

Very Quick – Internal Shutter is 316 Stainless for Totally Automated Calibration and Energy Scale Validation

Environmental Temp. Range

10°F to 130°F at 25% Duty Cycle

Security

Password Protected Usage (user level) and Internal Settings (admin)

XRF Spectrometry Data Method

XRF Spectrometry can use either Empirical Methods (calibration curves using standards similar in property to the unknown) or Fundamental Parameters (FP) to arrive at quantitative elemental analysis. The GEMORO XRF Gold and Alloy Analyzeruses the superior Fundamental Parameters because it allows elemental analysis to be performed without standards or calibration curves, which is much more preferred. This enables the analyst to use the system immediately, without having to spend additional time setting up individual calibration curves for the various elements and materials of interest. FP, accompanied by stored libraries of known materials, determines not only the elemental composition of an unknown material quickly and easily, but can identify unknown materials as well.

More on How XRF works:

XRF works by striking a sample with an X-ray beam from an X-ray tube, causing characteristic X-rays to fluoresce from each element in the sample. A detector measures the energy and intensity (number of X-rays per second at a specific energy) of each X-ray, which is transformed into an elemental concentration using either a non-standard technique such as fundamental parameters or user-generated calibration curves. The presence of an element is identified by the element’s characteristic X-ray emission wavelength or energy. The amount of an element present is quantified by measuring the intensity of that element’s characteristic X-ray emission.

The Atomic Level

All atoms have a mixed number of electrons. These electrons are arranged in orbitals around the nucleus. Energy Dispersive XRF (EDXRF) typically captures activity in the first three electron orbitals, the K, L, and M lines.

These electrons are arranged in orbitals around the nucleus. Energy Dispersive XRF (EDXRF) typically captures activity in the first three electron orbitals, the K, L, and M lines.

The primary photons from the X-ray tube have high enough energy that they knock electrons out of the innermost orbitals, creating a vacancy (1). An electron from an outer orbital will move into the newly vacant space at the inner orbital to regain stability within the atom (2).

As the electron from the outer orbital moves into the inner orbital, it releases energy in the form of a secondary X-ray photon. This energy release is known as fluorescence. All elements produce fluorescence “characteristic” to themselves. Each element’s fluorescence is unique to itself.

X-RAY

Sample Material

High-energy primary X-ray photons are emitted from an X-ray tube and strike the sample.

DETECTOR

Sample Material

The fluorescent energy is transferred to a detector, where it is absorbed and transferred into an electrical signal and then into a number (digitized).

While XRF analyzing technology is very precise, please recognize that this technology measures the elements present on the surface (AKA a “surface test”), and it should not be considered as a substitute for a fire assay of a core sample.

Introducing the GEMORO XRF Gold and Alloy Analyzer. Manufactured in the USA, the GEMORO XRF Analyzer is top in its class and the best choice for your investment.

Please Note :Payment accepted on this item

X-ray Fluorescence or XRF is a non-destructive, analytical method used to determine elemental concentrations of various materials on the surface of what is being analyzed. It’s important to recognize that not all XRF analyzers have the same capabilities.

Range of Precious Metal Elements the GEMORO XRF Gold & Alloy Analyzer can measure:

Also measures the following elements:

XRF Spectrometry Data Method

More on How XRF works:

The Atomic Level

All atoms have a mixed number of electrons. These electrons are arranged in orbitals around the nucleus. Energy Dispersive XRF (EDXRF) typically captures activity in the first three electron orbitals, the K, L, and M lines.

These electrons are arranged in orbitals around the nucleus. Energy Dispersive XRF (EDXRF) typically captures activity in the first three electron orbitals, the K, L, and M lines.

The primary photons from the X-ray tube have high enough energy that they knock electrons out of the innermost orbitals, creating a vacancy (1). An electron from an outer orbital will move into the newly vacant space at the inner orbital to regain stability within the atom (2).

As the electron from the outer orbital moves into the inner orbital, it releases energy in the form of a secondary X-ray photon. This energy release is known as fluorescence. All elements produce fluorescence “characteristic” to themselves. Each element’s fluorescence is unique to itself.

X-RAY

Sample Material

High-energy primary X-ray photons are emitted from an X-ray tube and strike the sample.

DETECTOR

Sample Material

The fluorescent energy is transferred to a detector, where it is absorbed and transferred into an electrical signal and then into a number (digitized).

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