Abstract: Disclosed is an attachable spacer applied to the front base plate of a hand-held and self-contained XRF testing device that holds the face plate at a forwards tilt towards a test sample, and ensures that only the top rim of the face plate ever touches a test sample. The resulting triangular gap minimizes contact between the front plate window and the test surface, prevents the transfer of heat to the XRF testing device's circuitry, and locks in a fixed distance between the face plate of the XRF testing device and the sample being tested.

Abstract: Disclosed is a test stand that supports and stabilizes a handheld XRF analyzer, and holds a body of sample to be tested. The test stand allows both horizontal and vertical analysis positions of the analyzer. The preferred embodiment of the test stand comprises a shielded X-ray chamber in which samples are tested and which affixes to the XRF analyzer's window via a spring loaded handle, a stabilizing base to which the analyzer's handle is situated, and a stanchion for horizontal mounting of the XRF analyzer. In the horizontal orientation, the chamber contains an adjustable platform and soil sample retainer to facilitate the positioning of the sample to be tested. The stanchion can be stored under the base.

Abstract: Herein disclosed is an x-ray florescence (XRF) test system which comprises an XRF test instrument used for testing a test target's responses to X-rays, the instrument including a test window allowing the X-ray and its responsive energy to pass through, and at least one window protecting film allowing X-rays to pass through and providing protections to the window, the film being configured to be coupled with the window in a fashion to be removed from or applied or reapplied over the window. The corresponding calibration mode can be manually or automatically applied according to the specific film presently in use.

Abstract: Disclosed is an attachable spacer applied to the front base plate of a hand-held and self-contained XRF testing device that holds the face plate at a forwards tilt towards a test sample, and ensures that only the top rim of the face plate ever touches a test sample. The resulting triangular gap minimizes contact between the front plate window and the test surface, prevents the transfer of heat to the XRF testing device's circuitry, and locks in a fixed distance between the face plate of the XRF testing device and the sample being tested.

Abstract: Disclosed is a test stand that supports and stabilizes a handheld XRF analyzer, and holds a body of sample to be tested. The test stand allows both horizontal and vertical analysis positions of the analyzer. The preferred embodiment of the test stand comprises a shielded X-ray chamber in which samples are tested and which affixes to the XRF analyzer's window via a spring loaded handle, a stabilizing base to which the analyzer's handle is situated, and a stanchion for horizontal mounting of the XRF analyzer. In the horizontal orientation, the chamber contains an adjustable platform and soil sample retainer to facilitate the positioning of the sample to be tested. The stanchion can be stored under the base.

Abstract: Herein disclosed is an x-ray florescence (XRF) test system which comprises an XRF test instrument used for testing a test target's responses to X-rays, the instrument including a test window allowing the X-ray and its responsive energy to pass through, and at least one window protecting film allowing X-rays to pass through and providing protections to the window, the film being configured to be coupled with the window in a fashion to be removed from or applied or reapplied over the window. The corresponding calibration mode can be manually or automatically applied according to the specific film presently in use.