Raman Spectrometer 532/785/1064nm
Standard Spectrometer 200-1100nm
High Sensitivity UV Enhanced Spectrometer
BSI Cooled High Sensitivity Spectrometers
Large NA High QE Spectrometer 200-1450nm
Near Infrared Spectrometer 900-2500nm
Laser Scanning Confocal Microscope
Laser Line Scan Confocal Microscope
Spinning Disk Confocal Microscope
Structured Illumination Microscope
Raman Microscope Wide Field
Fluorescence / PL Microscope
TCSPC System for SPAD (APD) Testing
Maskless Lithography UV Laser Writer
Laser Doppler Vibrometer 0.1Hz to 5Mhz
OCT Imaging System
X-ray/XRD Heating & Cryo Stage
Optical Heating & Cryo Stage
Electrical Probe Temperature Stage
Adjustable Electrical Probe Station
Tensile Strain Temperature Stage
Fiber Spectrometers (200nm to 5um)
X-Ray/XUV/VUV Spectrometers (1-300nm)
Hyperspectral Camera (220nm-4.2μm)
Multi-Spectral Camera (400-1000nm)
Photomultiplier Tubes (PMTs)
Visible Single Photon Detector(SPD)
Infrared Single Photon Detector(SPD)
Photodiode PD (200nm-12um)
Pyroelectric Infrared Detectors (2-12um)
IR Beam Profiler (2-16um)
Terahertz Beam Profiler(1-18 THz)
Scanning Slit Beam Profiler (190-2500nm)
Photodiode Power Sensors 250-2500nm
Power Meter Console
Integrating Spheres (10mm-100mm)
Power Meter Adaptor & Accessories
Filter & Wheel
LIV Test Systems for Laser Diode / LED
White Light Interferometer
Optical Coating CRD Reflectrometer
Optical Test Measurement System
RF Test Measurement System
CW Pigtail Laser Diode (400-1920nm)
CW Laser Diode Module (375-785nm)
CW Multi Wavelength Laser
DPSS Nanosecond Pulsed Lasers
DFB/FP Picosecond Laser (370-1550nm)
Nanosecond Pulse Fiber Laser(1064-2um)
Picosecond Pulse Fiber Laser (515nm - 2um)
Femtosecond Pulse Fiber Laser 780nm-2um
CW Fiber Laser System (405nm - 2um)
CW Narrow Linewidth Lasers (1530nm-2um)
C-Band Tunable Laser (1529 -1567nm)
L-Band Tunable Laser (1554 -1607nm)
2 Micron CW Tunable Laser (1900-2000nm)
Supercontinuum Fiber Lasers 450-2300nm
Broadband Femtosecond Laser 950-1150nm
Erbium Doped Fiber Amplifier
Ytterbium Doped Fiber Amplifier
Thulium-Doped Fiber Amplifier
Fiber Raman Amplifier
Semiconductor Optical Amplifier (SOA)
Microscope Light & Lamp (185 - 5500nm)
Single Wavelength LED Source(240-980nm)
Multi-wavelength LEDs Source (240-980nm)
ASE/SLD Light Sources (830-2000nm)
IR Emitter Chip (2-14um）
Light Field Sythesizer
Hollow-Core Fiber Compressor
High Powered Hollow-Core Fiber Compressor
Ultra-High Contrast 3rd-Order Autocorrelator
Coherent Ultrabroadband XUV Light Source
Enhanced Cavities for Laser Light
Terahertz Quantum Cascade Lasers(1-4.5Thz)
CW IR Quantum Cascade Lasers(3-12μm)
CW LWIR Quantum Cascade Lasers (10-17um)
Laser Scanning Confocal Microscope
Upright Fluorescence Microscope
Inverted Fluorescence Microscope
Smart 3D Stereo Microscope
USB Digital Microscope With Platform
Plan Apochromatic Objective
Industrial Plan Objective
Biology Plan Objective
Microscope CCD Camera (VIS-NIR）
Microscope CMOS Camera (UV-NIR)
UV & NIR Enhanced CMOS Camera
Hyperspectral Camera for Microscope
Multispectral Camera For Microscope
Microscope Light & Lamp
Soft X-Ray BSI sCMOS Camera (80-1000eV)
UV-NIR sCMOS Camera (200-1100nm)
Intensified CMOS Camera (200-1100nm)
Imaging Intensifier Tube
Full Frame CCD Camera for UV VIS NIR
Full Frame CCD Camera for VUV EUV X-ray
Full Frame In-vacuum CCD Cameras
Large Format In-vacuum CCD Cameras
HDMI Color CMOS Camera (Monitor)
High Speed Line Scan Camera
Large Format Camera
High Speed Large Format Camera
Infrared Pyrometers (-40-3000C)
Infrared linear Array Camera
Infrared Matrix Array Cameras
Blackbody Calibration Sources -15 to 1500°C
Short-Wave Infrared Camera (SWIR)
Mid-Wave Infrared Camera (MWIR)
Long-Wave Infrared Camera (LWIR)
Hyperspectral Camera LineScan (0.22-4.2um)
Hyperspectral Camera SnapShot(0.35-1um)
Optical Coherence Tomography (OCT）
Ultra-fast Pulse Generator for TCSPC
ID900 Timing Controller
ID1000 Timing Controller
Time-Correlated Single-Photon Counting System
General Purpose Pulse Generators
Medium and High Voltage Pulse Generators
High Speed Impulse Generator
Very High Speed Pulse Generators
Acousto-Optic Modulators (AOM)
Acousto-Optic Tunable Filter (AOTF)
Acousto-Optic Deflector (AODF)
Acousto-Optic Frequency Shift (AOFS)
Acousto-optic Q-switch (AOQS)
TPX / HDPE Terahertz Plano Convex Lens
Off-Axis Parabolic Mirrors
Terahertz Hollow Retro Reflector
Terahertz Metallic Mirrors
ZnTe / GaSe Terahertz Crystals
Terahertz Beam Expander Reflection
Ultrathin Beamsplitter Plate
Neutral Density Filters
Nonlinear Optical Crystals
Micro-Channel Plate (MCP)
Micro-Channel Plate Assembly (MCP)
Fiber Optic Plates (FOP)
Micro Pore Optics
13mm Linear Stages
25mm Linear Stages
Rotation and Tilt Stages
Rack and Pinion Stages
Vertical Axis Stages
Solid Vibration Isolation Optical Table
Solid Vibration Isolation Table
Pneumatic Optical table
Pneumatic Optical Table With Pendulum Rod
Honeycomb Optical Breadboard
Single Axis Motorized Piezo Stage
XY Motorized Piezo Stages
Multi Axis Motorized Piezo Stages
XY Microscope Piezo Stages
Vacuum Non-magnetic Piezo Stage
Nano Electric Actuator
High-speed Image Intensifier
The HiCATT is an intensified camera attachment specifically designed for use in combination with high-speed cameras. It can be used to amplify low light level images to a level up to 10000 times, thereby boosting the sensitivity of the attached high-speed camera and enabling high-speed, low light-level imaging. The HiCATT attaches to all major brand high-speed cameras by using a high-quality lens coupling.
The hybrid Image Intensifier of the HiCATT consists of 2 stages and can be delivered with a diameter of either 25 mm or 18 mm. The first stage is a Gen II or Gen III proximity-focused MCP intensifier and offers a very high, adjustable gain. The second stage is a proximity-focussed Gen1 booster, producing the extra high output brightness required for imaging at high frame rates. In its gating mode the first stage functions as a fast electro-optical shutter with effective exposure times down to the nanosecond regime. The intensifier can be operated at repetition rates of up to 2.5 MHz in burst.
With a wide range of Gen II and Gen III image intensifiers the HiCATT offers high sensitivity down to single photon level and the optimal spectral bandwidth for your application. Different models covering a range in spectral sensitivity, phosphor, spatial resolution, gain, linearity, minimum gate width and gating frequency are available.
Standard, the first stage image intensifier of the HiCATT is equipped with a single MCP. Dual MCP image intensifiers are available on request.
● Easy coupling
Flexible and efficient lens coupling to all major brand high-speed cameras (up to 300 000 fps)
● High-resolution image intensifiers
Gen II and Gen III image intensifiers offering the world’s highest resolution and sensitivity in the
UV, visible or near infrared
● Small gate widths
Gate width down to less than 3 ns (FWHM) with minimal jitter
● High gate repetition rates Up to 300 kHz/2.5 MHz burst
● Compact design for an easy fit to your imaging or spectroscopy setup
● Over exposure protection user-definable anode current limitation
● Particle Image Velocimetry (PIV)
● Laser Induced Fluorescence (LIF)
● Single photon imaging
● Bio- and Chemiluminescence Imaging
● Plasma physics
● Time-resolved imaging and spectroscopy
1a. Recording a blue gas flame from a Bunsen burner at high frame rates poses a challenge. The light intensity of the flame is low and to be able to see any details, especially in close-ups, very short exposure times are required.
1b. Recording made with a standard high-speed camera at 1000 fps and 1 ms exposure time. On the one hand, a long exposure time is needed to increase the sensitivity of the camera. On the other hand, a short exposure time is necessary to prevent motion blur.
1c. Recording made with the HiCATT in front of the high-speed camera at 2000 fps and 15 µs exposure time (using gating). The HiCATT makes it possible to capture flames at frame rates up to 300.000 fps. By using gating fast electro-optical shutter function of the image intensifier, the exposure time can be limited to a value at which motion blur is no longer an issue.
2. Recording sequence made with the HiCATT in combination with a high-speed camera. The recording shows a combustion cycle of a fuel injection engine at 22.000 fps.
For time-resolved imaging a gate unit (f) is used together with the image intensifier to yield an electro-optical shutter. The gate unit either generates a high voltage pulse signal or follows an external TTL pulse. The pulse width is variable and follows a TTL input pulse over the range from less than 3 ns to DC at a repetition rate up to 300 kHz.
These photons are guided by a fiberoptic faceplate (3) to the entrance of the second stage (booster).
Again photons are converted to electrons by the photocathode (4) and accelerated to the anode screen (5) where the image appears. The relay lens (6) transfers the image from the back of the intensifier onto the mounted camera.
Product specifications and Brochures
Product Brochure Link:
HiCATT G 40n: 40ns
HiCATT G 2n: < 3 ns with Gen II, 5 ns with Gen III
HiCATT G 2n: 300 kHz, 2.5 MHz in burst mode
Second stage image intensifier
Sensitivity and spectral range
Photon gain (max)
Typical resolution on output (lp/mm)
1:1 relay lens
2:1 relay lens
3:1 relay lens
S20: 33, S25: 31, GaAs: 28, GaAsP: 26
S20: 66, S25: 62, GaAs: 56, GaAsP: 52
S20: 99, S25: 93, GaAs: 84, GaAsP: 78
The HiCATT can be used as an ultra-fast electro-optical shutter by gating the image intensifier. This eliminates motion blur and reduces the effective exposure time, thereby significantly widening the camera’s dynamic range. To prevent loss of intrascene dynamic range when using a shorter gate the user can set a higher MCP gain. The pulse width and frequency are user defined: any pulse width from DC down to a few nanoseconds can be applied.
The table below summarizes the range of different intensifier control units available for the HiCATT.
● The gain control models act as a power supply for the image intensifier, gate pulse trains are supplied
● The gate control model has its own pulse generator, giving the user direct control of the gate width and
● The gate generator models have an enhanced version of the pulse generator with lower jitter. These
models allow the image intensifier to be synchronised to the exposure time of the camera by supplying
a trigger signal.
● All models allow the gate frequency to be set by an external TTL signal.
Microsoft Windows control software is provided with all control unit models, except the manual model. The software provides full user control of the pulse width and delay, gating mode, and intensifier gain. The control unit is connected to the computer via USB (RS-232 is optional). For integration in third party software a full command set is available.
The enhanced pulse generator of the gate generator models has 4 independent programmable pulse outputs (one of which is used for gating) that provide precise timed TTL pulses with pulse widths down to less than 3 ns (FWHM).
The intensifier gate generator is optionally available with programmable gate patterns. A frame storage facility allows storing many different delay/width-settings and the creation of cenarios of freely definable gate sequences.
Control Unit Model
level, divider and bursts (m out of n triggers)
The HiCATT can be supplied with an optional mechanical shutter for preventing damage to the image intensifier by high intensity stray light or direct laser light. It is further recommended to close the shutter between measurements to increase the lifespan of the image intensifier.
The shutter replaces the original F-mount adapter of the HiCATT. The back focal distance of the F-mount input is unchanged so any F-mount objective can be used. The shutter comes with a power supply and a remote control. A timer can be used to automatically close the shutter after a predetermined time. The remote control has an ergonomic design and a large LCD screen. The shutter can also be controlled by the software of the HiCATT or by an external TTL signal.
Shutter control via
- Hand held remote control with push button and timer
- External TTL signal
The photocathode is the entrance of the image intensifier. This is where the incoming photons are converted to electrons. The quantum efficiency of the photocathode material specifies how efficient this conversion is for each wavelength.
Second generation image intensifiers
The photocathode of a second generation image intensifier can have a quantum efficiency of up to 25%.
S25 photocathodes are only available in the 18 mm diameter image intensifiers.
Typical quantum efficiency (%) of second generation image intensifiers as a function of wavelength (nm).
Second generation high QE image
The photocathode of a second generation high QE image intensifier can have a quantum efficiency of over 30%.
Please note that these image intensifiers are only available with a diameter of 18 mm.
Typical QE, 200 ns gate width
Typical quantum efficiency (%) of second generation high QE image intensifiers as a function of wavelength (nm).
Second generation fast-gated high QE image intensifiers
The photocathode of a second generation high QE image intensifier can have a quantum efficiency of over 25%.
Typical QE, 3 ns gate width
Third generation image intensifiers
The photocathode of a third generation image intensifier can have a quantum efficiency of up to 50%.
Typical quantum efficiency (%) of third generation image intensifiers as a function of wavelength (nm).
Phosphor Decay Time
The anode screen of the image intensifier contains a layer of phosphorescent material. Upon impact of an electron, the phosphor screen will emit light. Depending on the type of phosphor, the intensity of the emitted light will decrease faster. The more efficient the phosphor, the slower its light intensity decays after excitation.
Our time-resolved cameras and camera attachments use P43 phosphor. The high luminous efficiency of this phosphor increases the light levels at the output of the image intensifier. This increases the quality of the resulting image.
Our high-speed cameras and camera attachments use P46 phosphor. This phosphor has a short decay time, so the light signal of consecutive frames doesn't get mixed up.
P47 phosphor is available on request, when even faster decay times are required.
DECAY TO 1%
S20 : 14800, S25:30000GaAs: 40000, GaAsp: 20000
Short-wave, Mid-wave, Long-wave Infrared Cameras
We are here for you!
Don't have time to search the products one by one? No worries. you can download the full range of SIMTRUM Product Line Cards.
Click it now.
Want to stay closer to the Market Dynamics and Technological Developments? Just take 5 seconds to Sign In as a member of SIMTRUM, we will bring you the most up-to-date news.
(Sign in button on the top right of the screen).
Sales Enquiry：+65 6996 0391
Address:Blk 71, #06-03, Ayer Rajah Crescent Singapore 139951
Copyright © 2021 SIMTRUM Pte. Ltd. All right reserved. www.simtrum.com