DAPD Products
Details and product sheets on our new high-perfomance detectors:
ANNOUNCING A NEW DIGITAL DAPD RECEIVER
1550nm Digital 5x5 DAPD Array Time-of-Flight LiDAR Receiver
1550nm Digital 5×5 DAPD Array Time-of-Flight LiDAR Receiver
Part Number
Description
Image
Data Sheet Link
5×5 DAPD-Array-1550-100-RX
A digital Receiver utilizing and InGaAs Discrete Amplification Photon Detector (DAPD) 5×5 array plus an Application Specific IC (ASIC). The Receiver has 25 independent channel, and real time A/D conversion.
The receiver is including two modules:
- The front-End (FEM1) module
- The Control Unit CM2) module
Included with the receiver:
- The firmware, for the FPGA and the ASIC
- LINUX-based software with a GUI control
- Technical support and documentation
DAPD 1×8 1550-200
Discrete Amplification Photon Detector Linear Array with a 1 by 8 configuration, in a 200-micron pitch. The linear array is packaged in a hermetically-sealed TO-8 with 16 leads, thermos-electric cooler and temperature-stabilization-enabling thermistor.
Near infrared spectral response with an In0.47Ga0.53As absorber (950nm to 1650nm), high-speed self-quenching negative feedback mechanism. designed for time-of-flight applications. The TO-8 optical window is made of Sapphire, with broadband anti-reflection coating in the 1500nm range.
DAPD TO8 -1550-200F
Discrete Amplification Photon Detector coupled to a Multi-Mode Fiber with a 200-microns core and an FC flat polished connector.
Near infrared spectral response (950nm to 1650nm), high-speed self quenching photon detector, designed for 3D LIDAR applications. Including: three-stage TEC and a thermistor, which is able to cool the DAPD to -50C.
DAPD 5×5+ PCB-1550-100
Discrete Amplification Photon Detector (DAPD0 5 by 5) Array with a pre-amplifier printed circuit board and temperature stabilization
Near infrared spectral response (950nm to 1650nm), high-speed self quenching 5 by 5 photon detector array, designed for 3D LIDAR applications. Including a printed circuit board with 25 preamplifiers, a two-stage TEC and a thermistor. One DC bias input is used for all 25 pixels, and each pixel is connected in parallel to an SMA high-speed connector.
DAPD 5×5-100
Discrete Amplification Photon Detector (DAPD) 5 by 5 Array module with temperature stabilization; 950nm to 1650nm
Near infrared spectral response (950nm to 1650nm), high-speed self quenching 5 by 5 photon detector array, designed for 3D LIDAR applications. Including a two-stage TEC and a thermistor.
DAPD-TO8
Near Infrared Discrete Amplification Photon Detector (DAPD) Thermoelectrically Cooled
Near infrared spectral response (950nm to 1650nm), high-speed self quenching photo detector, designed for a wide range of single photon detection applications. Photodetector packaged in a hermetically sealed TO-8 with a two-stage thermoelectric cooler and a thermistor for accurate temperature control. Available optical aperture diameter: 200µm, 80µm
DAPD-TO39
Near Infrared Discrete Amplification Photon Detector (DAPD) TO-39
Near infrared spectral response (950nm to 1650nm), high-speed self quenching photo detector, designed for a wide range of single photon detection applications. Photodetector packaged in a hermetically sealed TO-39. Available optical aperture diameter: 200µm, 80µm
DEM2-TO8
Device Evaluation Module 2
Discrete Amplification Photon Detector (DAPD) Device evaluation Module for TO8 package
The Evaluation module is a wide frequency range module designed for testing and evaluation of a thermoelectrically cooled DAPD packaged in a TO-8. It consists of a low-noise package, bias filtering circuit, 4 SMA connectors (1) for the Thermo-Electric Cooler (TEC), (2) connection for the Thermistor, (3) DAPD Bias, and (4) RF analog output.
DEM1-TO39
Device Evaluation Module 1
Discrete Amplification Photon Detector (DAPD) Device evaluation Module for TO39 package
The Evaluation module is a wide frequency range module designed for testing and evaluation of a DAPD packaged in a TO-39. It consists of a low-noise package, bias filtering circuit, 2 SMA connectors: (1) DAPD Bias, and (2) RF analog output.
