Products: PIXIS-XF Indirect Detection
Outstanding Flexibility for Medium-Energy Applications
The PIXIS-XF series of low-noise cameras utilizes front- and back-illuminated CCDs for indirect imaging of x-rays via specially designed phosphor screens and other Lambertian sources. The unique mechanical design of the PIXIS-XF, whose fiberoptic faceplate extends outside the vacuum, offers outstanding flexibility for optimizing performance at a specific x-ray energy. Dual-speed operation at 100 kHz or 2 MHz enables these cameras to be used for steady-state as well as high-speed applications.
Notable features include:
- Models and Specifications
- Accessories/ Related Products
Princeton Instruments PIXIS-XF systems provide 100% fill factor, a 1:1 fiberoptic ratio, ultra-low-noise electronics, thermoelectric cooling, and a compact design for worry-free operation in research and OEM environments. Applications include x-ray microtomography, x-ray diffraction, CRT / streak tube readout, and industrial and medical imaging. Change phosphors in the field to optimize performance at the desired x-ray energy; GdOS:Tb phosphor screens are available for 8 and 17 keV.
Please contact us for specific x-ray energy phosphor requirements.
Sensitivity in X-ray energy range from ~ 3keV to 20 keV:
X-ray computed microtomography
- X-ray medical and industrial imaging
Unique phosphor replacement design delivers:
Flexibility to exchange phosphors in the field to optimize camera performance to match X-ray energy
Dual-amplifier readout design delivers:
Ultimate flexibility to optimize system performance
Reduced read noise for weak signals with high sensitivity amplifier
- Increased effective dynamic range with high capacity amplifier
High-speed, USB 2.0 interface:
Industry standard computer interface without the need for additional hardware
Seamless plug-and-play connectivity with the latest desktops and laptops
- True 16-bit data transfer at 2MHz readout speed
PIXIS-XF Indirect Detection model comparison and datasheets
|Model||Imaging Array||Pixel Size||Energy Range||Quantum Efficiency||Sensor Type|
|XF-1024F||1024 x 1024||13 x 13 µm||<3.5 kev - >150 kev.||32% at 550 nm||front-illuminated|
|XF-1024B||1024 x 1024||13 x 13 µm||<3.5 kev - >150 kev.||97% at 550 nm||back-illuminated|
|XF-2048F||2048 x 2048||13.5 x 13.5 µm||<3.5 kev - >150 kev.||32% at 550 nm||front-illuminated|
|XF-2048B||2048 x 2048||13.5 x 13.5 µm||<3.5 kev - >150 kev.||97% at 550 nm||back-illuminated|
Coherent X-Ray Diffraction
X-ray diffraction is a technique for studying the characteristics of matter such as macromolecules, crystals, powders, polymers, and fibers.
Soft X-Ray Microscopy
Soft X-ray Microscopy is used for imaging and researching the elemental composition and structure of biological samples and more.
EUV lithography is gaining popularity because it retains the look and feel of the traditional optical lithography process (i.e., utilizes the 13.5 nm wavelength) and uses the same basic design tools.
Streak Tube Readout
Streak tube readout is commonly used to obtain intensity vs. spatial or spectral information over time periods of picoseconds to nanoseconds.
Micro Computer Tomography is a unique technique for the noninvasive, nondestructive 3D characterization of materials down to a micrometer scale.
X-ray µCT provides nondestructive, high-resolution 3D imaging for research and industrial applications
X-ray computed microtomography uses high-resolution, widedynamic- range CCD cameras, high-resolution scintillators, either synchrotron x-ray sources or microfocus x-ray tubes, and software algorithms designed to reconstruct 3D images.
This note describes several examples of XPCS in which high-performance CCD systems from Princeton Instruments can be used to capture microscopic, low x-ray-flux images.
X-Ray Camera Brochure
Comprehensive information on direct and indirect X-ray detection technologies from Princeton Instruments. Includes related application and technical notes.
Download operation manuals for Princeton Instruments cameras, spectrometers, and accessories from our ftp site.