A technology capable of producing large-area pressure-tolerant x-ray entrance windows of submicrometer thickness is presented. It is based on successive tungsten griddings to support a multilayered membrane consisting of polyimide, aluminum, and aluminum nitride. The aspects of design and fabrication processes are discussed with emphasis on the window foil fabrication. The performance of the windows is presented in terms of x-ray transmission, gas leak, pressure endurance, and radiation hardness properties
The Princeton Plasma Physics Laboratory (PPPL), in collaboration with the Naval Research Laboratory ...
The HiRadMat (High-Radiation to Materials) facility will allow testing of accelerator components, in...
The HiRadMat (High-Radiation to Materials) facility Ill will allow testing of accelerator components...
In order to fabricate entrance windows for soft x-ray detectors, various technologies have been deve...
In order to fabricate entrance windows for soft x-ray detectors, various technologies have been deve...
The substrate roughness has previously set the limit for the minimum thickness of X-ray windows base...
The substrate roughness has previously set the limit for the minimum thickness of X-ray windows base...
The x‐ray transmission properties of a very thin polyimide window in the range 7–310 Å have been inv...
The x‐ray transmission properties of a very thin polyimide window in the range 7–310 Å have been inv...
The polyimide-based X-ray windows are evaluated with respect to oxygen-induced erosion with an oxyge...
We describe the construction and tests of cryogenic X-ray windows of 47 mm diameter made of 15 ìm th...
We describe a new experimental technique that allows for soft x-ray spectroscopy studies (∼100-1000 ...
Large vacuum vessels are often employed in High Energy and Nuclear Physics experiments to provide a ...
X-ray lithography was employed to fabricate barrier ribs with a high aspect ratio for plasma display...
Various applications in modern particle accelerators or experiments involving high energy particle b...
The Princeton Plasma Physics Laboratory (PPPL), in collaboration with the Naval Research Laboratory ...
The HiRadMat (High-Radiation to Materials) facility will allow testing of accelerator components, in...
The HiRadMat (High-Radiation to Materials) facility Ill will allow testing of accelerator components...
In order to fabricate entrance windows for soft x-ray detectors, various technologies have been deve...
In order to fabricate entrance windows for soft x-ray detectors, various technologies have been deve...
The substrate roughness has previously set the limit for the minimum thickness of X-ray windows base...
The substrate roughness has previously set the limit for the minimum thickness of X-ray windows base...
The x‐ray transmission properties of a very thin polyimide window in the range 7–310 Å have been inv...
The x‐ray transmission properties of a very thin polyimide window in the range 7–310 Å have been inv...
The polyimide-based X-ray windows are evaluated with respect to oxygen-induced erosion with an oxyge...
We describe the construction and tests of cryogenic X-ray windows of 47 mm diameter made of 15 ìm th...
We describe a new experimental technique that allows for soft x-ray spectroscopy studies (∼100-1000 ...
Large vacuum vessels are often employed in High Energy and Nuclear Physics experiments to provide a ...
X-ray lithography was employed to fabricate barrier ribs with a high aspect ratio for plasma display...
Various applications in modern particle accelerators or experiments involving high energy particle b...
The Princeton Plasma Physics Laboratory (PPPL), in collaboration with the Naval Research Laboratory ...
The HiRadMat (High-Radiation to Materials) facility will allow testing of accelerator components, in...
The HiRadMat (High-Radiation to Materials) facility Ill will allow testing of accelerator components...