Oxford Instruments | Andor

Balor is Andor's new development for astronomical cameras with a large area sCMOS sensor. The Balor 17-12, featuring a 16.9-Mp sensor with a larger field of view and 70 mm diagonal, as well as fast, low-noise readout capabilities. Balor is ideal for measuring photometric and astrometric variability on time scales from milliseconds to tens of seconds.

Balor is the largest commercial sCMOS camera designed for "dynamic astronomy" applications such as orbital debris tracking, solar system object detection, exoplanet discovery, atmospheric studies, and fast time-resolved astrophysics. Balor lends itself particularly well to the short-exposure method, which can improve the resolution of ground-based astronomical observations over a much larger field of view than can be achieved with adaptive optics.

Marana is Andor's latest high-performance sCMOS camera, ideal for a variety of physical science applications such as astronomy, Bose-Einstein condensation, quantum optics, hyperspectral imaging, neutron tomography and fast spectroscopy. Both Marana models (pixel size: 11 µm, 6.5 µm) are equipped with 4.2-Mpx sensors, have a quantum efficiency (QE) of 95% and a sensor cooling system down to -45 °C.

Importantly, Marana sCMOS reads a high-resolution 4.2-Mpx sensor in less than 50 milliseconds while maintaining very low noise, hundreds of times faster than a CCD detector of similar resolution.

The ZL41 Wave 4.2 delivers exceptional sensitivity through a combination of high quantum efficiency (82%) and very low readout noise of 0.9 e- from a 4.2-Mpx sensor. It is ideal for increasing frame rates in light-deficient environments in astronomy, quantum imaging, quantum computing, spectroscopy and 3D tomography.

The 6.5 µm pixel size of the ZL41 models allows the camera resolution to be more precisely matched to a specific optical configuration. Pixel binning with 32-bit digitization provides additional application flexibility.

The ZL41 Wave 4.2 offers the highest sensitivity for near-Earth object (NEO) detection, orbital debris tracking, or exoplanet searches

The iStar sCMOS is Andor's new ultra-fast camera for imaging with nanosecond temporal resolution.

USB 3.0 iStar sCMOS technology delivers frame rates at least 50% higher than competing interline transfer CCDs, while possessing inherently low noise.

A better signal-to-noise ratio is achieved with lower gain, resulting in better dynamic range performance. In addition, the system features a "double frame" capability for PIV digital tracer imaging method with an inter-frame interval of 300 ns.

It features high frame rates of up to 50 fps (4,000 with ROI) via USB3 interface and high gating accuracy. It is an ideal system for ultrafast, nanosecond transient experiments and hyperspectral imaging.

The ZL41 Wave 5.5 is a cost-effective and flexible solution that provides a wide field of view thanks to its 5.5-Mpx sensor. In addition, this camera features a 2-in-1 function and a global shutter.

The ZL41 Wave 5.5 is well suited for flow visualization using the PIV digital tracer imaging method. Temporal resolution between image pairs is a key requirement of this approach, and the global shutter mode of this camera can be used to provide an optical inter-frame interval on the order of ~100 ns.

The ZL41 Wave can be easily integrated into optical systems for imaging quantum gases such as Bose-Einstein condensates, or for fluorescence studies of single ions and atoms in traps with continuous frame rates in excess of 26,000 fps.

Andor's unique Zyla-HF design provides the highest transmittance and spatial resolution characteristics of a single-fiber wafer junction and takes advantage of very high frame rates, ultra-low noise, and exceptional field of view.

The compact format, multiple mounting points, and modular input configuration for integration of scintillators or beryllium filters provide easy integration into laboratory setups. This combination of features makes the Zyla-HF an ideal detector system for applications such as X-ray imaging and tomography, electron microscopy.

The iXon Ultra 888 EMCCD camera with megapixel resolution and backlighting, sensitive to single photons, also features high frame rates and a wide field of view. The readout speed reaches 30 MHz, while using Crop Mode can increase the frame rate to 93 fps when selecting a 512 x 512 array, and 697 fps when selecting an array of 128 x 128 pixels.

At 1024 x 1024 resolution with a pixel size of 13 µm, the iXon Ultra 888 EMCCD camera is ideal for live cell imaging, super-resolution microscopy, single molecule detection, and high-resolution time-resolved astronomy applications.

Additionally, the iXon Ultra 888 features a high-bandwidth USB3.0 interface, Camera Link output port for direct data access for real-time processing. The camera can operate in standard CCD mode with low noise.

The iXon Ultra camera features a 512 x 512 backlit sensor with USB 2.0 interface. The readout speed reaches 17 MHz, which increases the frame rate to 56 fps (full frame), while maintaining the sensor's sensitivity to single photons and stability in quantization.

The sensor's ultimate sensitivity is achieved by thermoelectric cooling down to -100 °C and low dark noise. The user has direct access to the data for real-time processing. The camera can be operated as an EMCCD and as a standard CCD camera with low noise.

The iKon-XL is a very large area thermoelectrically (TE) cooled CCD camera accommodating wide field-of-view sensors that are ideal for long exposure astronomical applications.

Utilizing unique, patented ColdSpace™ technology, the iKon-XL ultra-sensitive camera cools the 16.8 megapixel sensor (back-illuminated e2v) to -100°C, avoiding the use of liquid nitrogen or unreliable cryocoolers.

The iKon-XL also features exclusive Extended Dynamic Range technology for low noise in a single scan, as well as digitization capabilities up to 18 bits.

The iKon-L series CCD cameras feature wide dynamic range, high resolution, wide field of view and high sensitivity. Equipped with a 5-stage thermoelectric cooling system to reduce the temperature of the large area sensor to -100°C without using liquid nitrogen.

The double-layered coating technology allows high quantum efficiency of the sensor cells in a wide spectral range, covering the spectrum from UV to near IR.

The iKon-L model is equipped with a sensor with a resolution of 2048 x 2048 and a pixel size of 13.5 µm, and has an active area of 27.6 x 27.6 mm. The high sensitivity of the sensor is achieved due to the high quantum efficiency (more than 90%) of the back-illuminated sensor, low-noise electronics and deep cooling. The presented model is ideal for image registration in low light conditions

Deep depletion technology provides high efficiency in the near infrared range. Dual-reflective coating technology extends the spectral range in which quantum efficiency is maximized to the UV. Fringe Suppression™ technology eliminates interference effects in the near infrared.

Model iKon-M 934 is equipped with a CCD sensor with low noise, high sensitivity and resolution of 1024x1024, quantum efficiency up to 95%, wide spectral range and characteristic pixel size of 13 microns. Thermoelectric cooling of the sensor to -100 °C reduces the dark current level.

The PV Inspector near infrared camera has high speed and sensitivity for in-line quality control of photovoltaic cells based on the analysis of electro- and photoluminescence signals.

The camera sensor has a quantum efficiency of more than 90% in the spectral range above 800 nm. It utilizes Fringe Suppression™ technology to eliminate interference effects in the near-IR. The sensor, with a pixel size of 13 µm, has low dark current due to thermoelectric cooling down to -70°C.

High performance, fast readout speeds (up to 5 MHz) and fast exposure switching are characteristic, while the USB 2.0 port provides a reliable vibration-resistant connection between the camera and a PC.

Increased sensor sensitivity in the near-infrared range and fast readout speeds allow the PV Inspector to perform examinations at speeds of more than 1 element per second.

Andor's iStar 320 series of amplified CCD cameras are designed for an optimal integrated detection solution for high-resolution nanosecond-scale spectroscopy.

The 4:1 aspect ratio is ideal for use with Andor's Shamrock series spectrographs. It provides multi MHz readout for over 322 spectra/sec (> 2900 in Crop Mode), as well as convenient laptop connectivity, USB 2.0 and a fully integrated, software-controlled Digital Delay Generator (DDG™).

This makes it easy to integrate complex experiments at the touch of a button, with full control of time and gain through a single interactive interface.

Andor's iStar 334 series of amplified CCD cameras are designed for an optimal integrated detection solution for high-resolution, nanosecond-scale spectroscopy.

The 1024 x 1024 high-resolution sensor with a 13 µm pixel size provides a 4:1 aspect ratio, ideal for use with Shamrock series spectrographs.

Gated detectors can be used to determine optical parameters from which fundamental plasma properties can be derived. The precise nanosecond gating of image intensifier-based detectors can be used to study plasma dynamics or to extract useful information about the plasma generated by pulsed lasers.

Andor's iStar 340 Intensified CCD sensor series is designed as the optimal integrated detection solution for high-resolution, nanosecond-scale spectroscopy.

The high-resolution 2048 x 512 sensor with a pixel size of 13.5 µm provides a 4:1 aspect ratio that is ideal for use with the Shamrock series spectrographs.

Andor's iStar 340 camera incorporates the best of CCD sensor and image intensifier technologies. Exceptional detection performance is achieved through high quantum efficiency image intensifiers, thermoelectric cooling down to -40ºC, and a 500 kHz photocathode gating frequency.

Andor's Kymera 193i spectrograph is designed with research performance, versatility and ease of use in mind. Motorized adaptive focusing allows for the best spectral resolution performance in any configuration.

The F/3.6 aperture, combined with Andor's line of ultra-sensitive detectors, provides a spectroscopic system with excellent photon collection efficiency, ideal for challenging microfluorescence/Raman spectroscopy applications in low-light conditions or for continuous spectral recording.

The Kymera 328i modular spectrograph features patented adaptive focusing, a four diffraction grating turret, and TruRes™ technology for superior spectral resolution. Its unique configuration options and intuitive user interface make it an ideal system for a wide range of continuous and more complex spectroscopic experiments.

TruRes™ technology provides the best spectral resolution for a spectrograph with a 328 mm focal length and a performance gain of over 30%, enabling the best Kymera performance without the need to change grating or mathematical processing of spectra. Clearer detection of dense Raman or plasmonic optical signals can be achieved without sacrificing UV to IR bandwidth.

The Shamrock 163 is the most compact Czerny-Turner spectrograph on the market. The 163 mm focal length, F/3.6 aperture and a range of interchangeable gratings make it ideal for general purpose benchtop spectroscopic measurements.

Configurable platform for multi-track spectroscopy - Lens-based accessories allow you to optimize system performance for simultaneous multi-fiber signal acquisition with low crosstalk.

The Andor Shamrock SR-500i spectrometer is based on the Czerny-Turner optical scheme. The optimized optical design provides exceptional performance for multi-track spectroscopy. The Shamrock 500i comes as a pre-aligned and calibrated camera/spectrometer, allowing easy integration into a custom configuration.

A dedicated spectroscopy software interface provides an interactive and intuitive platform for simultaneous real-time control of the detector and spectrometer.

The Shamrock 750 offers the highest resolution in the Shamrock series. Andor Shamrock 750 is based on a Czerny-Turner optical scheme. The Shamrock spectrograph is supplied as a pre-calibrated detector/spectrometer, providing full integration of software, electronics, optics and detector. In addition, there is a fast and interactive graphical software interface that allows full control of all spectrograph functions.

Andor's new Mechelle ME5000 Echelle spectrograph is designed to simultaneously record a wide range of wavelengths (200-975 nm) in a single registration. It has no moving components and comes in a pre-calibrated detector/spectrometer format.

The Andor Mechelle spectrograph is based on an Eshel reflection diffraction grating, and its patented optical design provides extremely low crosstalk and maximum resolution compared to other spectrographs.