Teledyne DALSA - BLAZE Award Winning Cameras for Spectroscopy
The BLAZE is the ideal camera for low-light spectroscopy detection, delivering extremely high sensitivity over the visible and NIR range. With low dark current and fast speed, the BLAZE offers a QE above 90% at 450 nm, 98% at 900 nm and 75% at 1000 nm
High Sensitivity from Visible to NIR
The BLAZE is equipped with HS sensors patented with eXcelon technology, offering the highest visible-NIR quantum efficiency, with >90% QE at 450nm, 98% QE at 900nm and 75% at 1000nm. Ideal for Raman and photoluminescence spectroscopy, the BLAZE LD sensors minimize dark current optimal for low light applications.
High Speed
Having a readout speed of up to 16 MHz and customizable sensors the BLAZE is the fastest spectroscopic CCD available.
The BLAZE delivers up to 1650 spectra per second of full vertical binning, over 14 times more than competitors, with up to 215 kHz spectral rate in kinetics mode.
Deep Cooling
Exceptional cooling capabilities with a multi-stage thermoelectric cooling system with custom-designed Peltier devices, the BLAZE can operate at temperatures of -95℃, 15℃ lower than that of competitors.
Permanent all-metal UHV seals allow for reliable long-term operation, providing BLAZE to reach TRUE temperatures of -100℃ with 20℃ liquid assist
Revolutionary Sensors
HR Sensors
The back-illuminated super deep depletion devices offer the highest NIR performance of any spectroscopic CCD available. Delivering 75% quantum efficiency at 1000 nm and optimized spatial resolution, the HR sensor allows for highly sensitive acquisition.
LD Sensors
Achieving very low dark current through the use of advanced, inverted mode, deep depletion devices the LD sensors are able to provide excellent broadband performance and enhanced NIR quantum efficiency.
Powered by LightField Software
Powerful and intuitive software with built-in math engine allows for the compete control of IsoPlane cameras and spectrographs, with real-time image analysis and spectral data.
LightField software provides seamless integration of hardware controls and direct data acquisition into programs such as National Instruments’ LabVIEW® and MathWorks’ MATLAB®. This software also fully supports IntelliCal automated wavelength and intensity calibration.
The BLAZE can also be fully controlled by PICAM SDK, eliminating any overhead that can occur when communicating through other development environments.
Family Specifications
|
Quantum Efficiency |
>90% at 450 nm 98% at 900 nm 75% at 1000 nm |
|---|---|
|
Pixel Size |
20 x 20 μm |
|
Supported Interfaces |
USB 3.0 |
|
Read Noise (Median) |
2.2 e- |
Models
|
Model Number |
Resolution |
FPS |
Pixel Size (μm) |
Dark Current |
Read Noise |
Read Noise |
|---|---|---|---|---|---|---|
|
1340 x 100 |
1650 spectra/sec |
20 µm |
0.0015 e⁻/p/s |
<3 e⁻ |
<1.0 |
|
|
1340 x 400 |
577 spectra/sec |
20 µm |
0.0015 e⁻/p/s |
<3 e⁻ |
<1.0 |
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More Product Information
The BLAZE is the ideal camera for low-light spectroscopy detection, delivering extremely high sensitivity over the visible and NIR range. With low dark current and fast speed, the BLAZE offers a QE above 90% at 450 nm, 98% at 900 nm and 75% at 1000 nm
- Image acquisition from Camera Link Base camera
- Supports Camera Link® operations up to 85MHz
- Supports 32/64-bit Windows platforms
- Quarter-length PCI Express x1 Board
- Power Over Camera Link® (PoCL) Compliant
- Offers external acquisition control signals on single PCIe x1 slotROHS compliant
Capture, Process, Control at the Edge
- Resolutions 1.2 to 12 megapixels
- Quad-core processor
- Broad range of onboard I/O
- Compact, rugged, IP67 enclosure
- Run AI inspection models on-camera
- No-code machine vision development
With the ProBus interface, the ZD500, 1000, and 1500 becomes an integral part of the oscilloscope. All probe gain and offset controls are transparent to the user, making it easier to probe the circuit without concern for which gain setting to choose. When used with a LeCroy digital oscilloscope, no external power supply is required.
Fully Integrated: With the ProBus™ interface, the AP033 becomes an integral part of the oscilloscope. The probe sensitivity and offset can be controlled from the oscilloscope front panel, the probe front panel, or by using remote control commands (GPIB or RS-232). Sensitivity, offset, input capacitance, and common mode voltage range are displayed on the oscilloscope screen. When used with a LeCroy digital oscilloscope, no external power supply is required.
- Available in 30MHz, 40MHz, 60MHz, 80MHz, 120MHz, 200MHz, 350MHz and 500MHz models
- All models feature 2 channels
- Max Sampling rate of 150 Msa/s (30MHz & 60 MHz) 1.2 Gsa/s (40MHz, 80MHz, 120MHz) and 2.4 Gsa/s (200MHz, 350MHz and 500MHz) models.
- Up to 16-bit vertical resolution (14-bit on 30MHz & 60MHz models).
- All models have 4.3" Touchscreens.
- Excellent analog and digital modulation types available (AM, DSB-AM, FM, PM, PSK, FSK, ASK and PWM)
- Static power analysis - like a dedicated power analyzer
- Dynamic power analysis – capture more information
- Complete test coverage – control system, power section, motor
- Comprehensive mechanical interface
- Harmonics calculation option
- Vector display option (THREEPHASEVECTOR)
- Waveform Transformations option (THREEPHASEdq0)
- 16 Channels with OscilloSYNC™
- Ultra-compact form factor
- Single USB data and power
- 50 fps imaging speed
- High resolution 7 MP sensor
- Small 4.5 μm pixels
- True global shutter
- Simple integration
Transmission line probes are a special type of passive probe designed for use at very high frequencies. They replace the high impedance probe cable found in a traditional passive probe with a precision transmission line, with a characteristic impedance that matches the oscilloscope input (50 Ohm). This greatly reduces the input capacitance to a fraction of a picofarad, minimizing the loading of high frequency signals. A matching network at the tip increases the DC input resistance. While they have lower DC input resistance than a traditional passive probe (usually 500 Ohm) to 1kOhm), the input impedance of these probes remains nearly constant over their entire frequency range. A traditional /10 passive probe will have a 10 MOhm) input impedance at DC, however this impedance drops rapidly with frequency, passing below the input impedance of a transmission line probe at less than 100 MHz.
Teledyne DALSA
Teledyne DALSA is an international leader in high performance digital imaging and semiconductors with approximately 1000 employees world-wide. Established in 1980 and acquired by Teledyne Technologies in 2011, Teledyne DALSA designs, develops, manufactures, and markets digital imaging products and solutions, in addition to providing semiconductor products and services. Our core competencies are in specialized integrated circuit and electronics technology, software, and highly engineered semiconductor wafer processing.
Teledyne DALSA exists for the long term. Our goal is to build upon our 30 year heritage of developing the world's leading high performance digital imaging and semiconductor solutions and to accelerate our level of innovation. We focus on R&D development but also draw on the capabilities available to us as part of a larger organization. We seek to deliver products and technology that are truly innovative so that we can help our customers succeed.
Contact Details
Teledyne DALSA Headquarters
605 McMurray Road, Waterloo, Ontario, Canada N2V 2E9
Phone: 519-886-6000
Fax: 519-886-8023
Imaging/Machine Vision
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