Abstract: An x-ray optical device includes an optic and an adjustable aperture that selectively occludes a portion of an x-ray beam. The adjustable aperture may be positioned between the optic and a sample and may be integrated with the optic or located in close proximity to the optic. The adjustable aperture enables a user to easily and effectively adjust the convergence of the x-rays. In doing so, the flux and resolution of the x-ray optical device can be optimized by using an optic having the maximum convergence allowed for all potential measurements, and then selecting a convergence for a particular measurement by adjusting the aperture.

Abstract: A two-dimensional x-ray scattering camera includes a source, an optic, a detector, and a pair of collimating blocks. The source emits x-ray beams that are reflected by the optic towards a sample. The detector detects scattering from the sample, the pair of collimating blocks is positioned between the optic and the detector to collimate the beam. A bottom surface of one block is substantially parallel a top surface of the other block, and the blocks are rotatable relative to the beam about a pivot. The system forms a two-dimensional beam that is symmetric about the primary beam axis at the detector position, regardless how the beam is collimated by the collimating blocks. The system therefore eliminates smearing and can be used for anisotropic small angle scattering at high resolution and low Qmin.

Abstract: A two-dimensional x-ray scattering camera includes a source, an optic, a detector, and a pair of collimating blocks. The source emits x-ray beams that are reflected by the optic towards a sample. The detector detects scattering from the sample, the pair of collimating blocks is positioned between the optic and the detector to collimate the beam. A bottom surface of one block is substantially parallel a top surface of the other block, and the blocks are rotatable relative to the beam about a pivot. The system forms a two-dimensional beam that is symmetric about the primary beam axis at the detector position, regardless how the beam is collimated by the collimating blocks. The system therefore eliminates smearing and can be used for anisotropic small angle scattering at high resolution and low Qmin.

Abstract: An x-ray optical device includes an optic and an adjustable aperture that selectively occludes a portion of an x-ray beam. The adjustable aperture may be positioned between the optic and a sample and may be integrated with the optic or located in close proximity to the optic. The adjustable aperture enables a user to easily and effectively adjust the convergence of the x-rays. In doing so, the flux and resolution of the x-ray optical device can be optimized by using an optic having the maximum convergence allowed for all potential measurements, and then selecting a convergence for a particular measurement by adjusting the aperture.

Abstract: A modular x-ray lens system for use in directing x-rays comprising a radiation source which generates x-rays and a lens system which directs the x-rays, wherein the x-ray lens system may be configured to focus x-rays to a focal point and vary the intensity of said focal point.

Abstract: A multilayer mirror 1 that has elliptical reflection faces and provides a divergent angle &dgr; of X-rays, is included. The elliptical reflection faces of the multilayer mirror 1 have two focal points. When an X-ray source 2 is arranged at one focal point A, and X-rays that are diverged from the X-ray source 2 are reflected at the multilayer mirror 1, the reflected X-rays converge on another focal point B. The X-ray source 2 is arranged at one focal point A of the multilayer mirror 1. Additionally, a distance L2 from the center of the reflection faces of the multilayer mirror 1 to another focal point B (in other words, convergent point of reflected X-rays) is set to make a convergent angle &thgr;c of X-rays at the focal point B nearly twice as great as the divergent angle &dgr;. With the above-noted configuration, both small angle resolution and intensity of incident X-rays to a sample may be optimized, and small angle scattering may be performed with high precision.

Abstract: An electromagnetic reflector having a multilayer structure where the electromagnetic reflector is configured to reflect multiple electromagnetic frequencies.

Abstract: An electromagnetic reflector having a multilayer structure where the electromagnetic reflector is configured to reflect multiple electromagnetic frequencies.

Abstract: A modular x-ray lens system for use in directing x-rays comprising a radiation source which generates x-rays and a lens system which directs the x-rays, wherein the x-ray lens system may be configured to focus x-rays to a focal point and vary the intensity of said focal point.

Abstract: A modular x-ray lens system for use in directing x-rays comprising a radiation source which generates x-rays and a lens system which directs the x-rays, wherein the x-ray lens system may be configured to focus x-rays to a focal point and vary the intensity of said focal point.

Abstract: An x-ray analysis system including a focusing optic for focusing an x-ray beam to a focal point, a first slit optically coupled to the focusing optic, a second slit optically coupled to the first slit, and an x-ray detector, where the focal point is located in front of the detector.

Abstract: An x-ray diffractometer system comprising an x-ray optic which directs x-rays, a sample placed into said directed x-rays, wherein said sample diffracts said directed x-rays, creating a diffraction pattern, a translation stage coupled to said sample for moving said sample within said directed x-rays, whereby the resolution, angular range, and intensity of said diffraction pattern may be adjusted, and an x-ray detector for registering said diffraction pattern.

Abstract: An x-ray reflecting system comprising a Kirkpatrick-Baez side-by-side optic in a single corner configuration having multi-layer Bragg x-ray reflective surfaces.

Abstract: An x-ray reflecting system comprising a plurality of x-ray reflectors, wherein the x-ray reflectors are coupled together to form a Kirkpatrick-Baez side-by-side system of multiple corners and may include multi-layer or graded-d multi-layer Bragg x-ray reflective surfaces.