4MP, 6.5µm Pixel, 200-1100nm sCMOS Camera
| Features |
| The spectral response range covers 200–1100 nm. |
| 640×512 resolution，6.5μm pixel size |
| Roller Shutter / Global Reset |
| 11-bit ADC / 12-bit ADC / 16-bit combined HDR |
| Supports external I/O trigger control |
| 4Gb (512MB) RAM |
| CE/FCC Cerifcation，Multi-platform SDK |
| Model | UVISI064BU10G |
| Sensor type | GSENSE6504BSI |
| Spectral Range | 200nm-1100nm |
| Pixel Size | 6.5µm x 6.5 µm |
| Sensor Size | 1.2” |
| Resolution | 2048 x 2048 |
| Frame Rate | 10Gige: 270fps@8bit、180fps@12bit、135fps@16bit USB3.2: 220fps@8bit、150fps@12bit、112fps@16bit |
| Image Buffer | 1024MB (8Gb) |
| QE | 95%@450nm |
| Conversion Range | 1x – 75x (HCG),1x – 50x (LCG) |
| Conversion Gain | 4.5DN/e⁻(Gain x58.8) |
| Dynamic Range | 83.4dB (HDR) |
| Readout Noise | 0.9e⁻ (Gain x58.8) |
| Full Well Charge | 13.4ke⁻(Gain x3.7) |
| Maximum SNR | 41.2dB (Gain x3.7) |
| Dark current | 0.01e⁻/s/pixel@ -20℃ |
| Sensitivity | 9.2×10⁷e⁻/((W/m2)·s)@450nm |
| Exposure Time Range | 12µs-300s |
| Binning Mode | Software 2×2~8×8, Hardware FPGA 2×2~4×4 |
| Shutter Mode | Roller Shutter / Global Reset |
| Data interface | USB3.2 + 10Gige |
| Digital I/O | 1 channel of optically isolated input, 1 channel of optically isolated output, 2 channels of non-isolated input/output port |
| Data Format | 8 bit / 12 bit / 16 bit |
| Cooling Temperature | -25℃ guaranteed, specified at ambient temperature of +20℃ |
| Lens mount | C-mount |
| Power Supply | DC19V 4A |
| Power consumption | TBD |
| Size | 85×85×118mm |
| Weight | TBD |
| Software | Complete SDK / AttosView |
| Operating Temperature | -30~60℃， |
| Storage Temperature | -40~85℃ |
| Humidity | 20%-80%，No condensation |
| Cerifcation | CE, FCC |
| Parameter | Specification |
| Dimensions | 85mm×85mm×118mm |
| Lens Interface | C mount |
| Item | Specification |
| 1 | USB3.2 GEN2Interface |
| 2 | 10 GigeInterface |
| 3 | ExternalIOInterface |
| 4 | DC 19V Power Connector |
| 5 | Power Switch |
| Table1: USB port, GigE port, CL port refrigerated camera pin signal definitions | |||||
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Color | Pin | Signal | Description of the signal | |
| White | 1 | GDN | Direct-coupled signal ground | ||
| Red | 2 | 12V | 12VDC power input | ||
| Blue | 3 | OPTO_GND | Opto-isolated signal ground | ||
| Yellow | 4 | DIR_GPIO0 | Direct-coupled General Purpose I/O (Software configurable input/output) (line2) | ||
| Black | 5 | DIR_GPIO1 | Direct-coupled General Purpose I/O (Software configurable input/output) (line3) | ||
| Green | 6 | OPTO_IN | Opto-isolated input signal (line0) | ||
| Pink | 7 | OPTO_OUT | Opto-isolated output signal (line1) | ||
Logic 0 input level: 0~2.2VDC (OPTO_IN pin)
Logic 1 input level: 3.3~24VDC (OPTO_IN pin)
Maximum input current:30mA
When the input level is between 2.2V and 3.2V, the circuit operation state is uncertain, please do not let SWIR camera work within this voltage range.
Input rise delay (TDR): 6us
Input fall delay (TDF): 6us
The opto-isolated output maximum current is 30mA.
The electrical characteristics of the opto-isolated output (external voltage 5V, external resistor 1K) are shown in Table 2.
| Table 2： Opto-isolated output signal’s electrical characteristics | ||
| Parameter name | Parameter notation | Parameter value |
| Output logic low | VL | 742mV |
| Output logic high | VH | 4.134V |
| Output rise time | TR | 4us |
| Output fall time | TF | 1.8us |
| Output rise delay | TDR | 12us |
| Output fall delay | TDF | 2us |
The output of the corresponding output current and VL when using different voltages and resistors in externalcircuit are shown in Table 3.
| Table 3：Opto-isolated output logic’s low levels parameters | |||
| External voltage | External resistor | VL | Output current |
| 3.3V | 1KΩ | 510mV | 2.82mA |
| 5V | 1KΩ | 742mV | 4.31mA |
| 12V | 2.4KΩ | 795mV | 4.68mA |
| 24V | 4.7KΩ | 850mV | 4.97mA |
1. Line2/line3 is set as input pin
Logic 0 input level: 0~0.6VDC (DIR_GPIO0/DIR_GPIO1 pins)
Logic 1 input level: 2.0~24VDC (DIR_GPIO0/DIR_GPIO1 pins)
Maximum input current: 25mA
When the input level is between 0.6V and 2.0V, the circuit action state is uncertain, please avoid the input voltage range working in this range.
To prevent damage to the GPIO pins, please connect the pin GND first, and then input voltage to the Line2 pin.
Input rise delay (TDR): 0.02us
Input fall delay (TDF): 0.02us
2. Line2/line3 are set as output pins
The maximum current allowed through this pin is 25mA.
The external pull-up voltage is 5V, the pull-up resistor is 1KΩ, and the GPIO is configured to output the logic level and electrical characteristics as shown in Figure 4.
When the ambient temperature is 25 degrees Celsius, the relationship between the external voltage, resistance and low-level voltage output is shown in Table 4.
| Table 4：Non-isolated output Logic’s low level parameters | ||
| External voltage | External resistor | VL(GPIO) |
| 3.3V | 1KΩ | 0.11V |
| 5V | 1KΩ | 0.167V |
| 12V | 2.4KΩ | 0.184V |
| 24V | 4.7KΩ | 0.385V |
| Table 5: Non-isolated output electrical characteristics | ||
| Parameter name | Parameter notation | Parameter value |
| Output rise time | TR | 0.08us |
| output fall time | TF | 0.02us |
| Output rise delay | TDR | 0.1us |
| Output fall delay | TDF | 0.04u |
AttosView support all Attostek UV-VIS and SWIR cameras, it is a professional software that integrates camera control, image acquisition and processing, image browsing and analysis functions.
AttosView has the following characteristics:
- x86: XP SP3 and above; CPU support SSE2 and above
- x64: Win7 and above
ascamsdk support a variety of APIs, including: Native C/C++,.NET/C#/VB.NET, Python, Java, DirectShow, Twain, LabView, Matlab, etc. Compared with other APIs, Native C/C++ API as a low-level API is characterized by using pure C/C++ development without relying on other runtime libraries. The interface is simple and the control is flexible.
- x86: XP SP3 and above; the CPU needs to support at least the SSE2 instruction set.
- x64: Win7 and above.
- arm: Win10 and above.
- arm64: Win10 and above.
AttosTek provides extensive third-party software support for its UV-Vis cameras and SWIR cameras, facilitating rapid integration and use in various development environments. This includes SDK and demo programs for LabVIEW and MATLAB, as well as DirectShow drivers, Micromanager, and TWAIN SDK drivers. These features enable seamless compatibility with mainstream development environments and third-party software, greatly simplifying the workflow for system integration and secondary development.
Support all Attostek UV-VIS and SWIR cameras.
Click the button below to download the AttosView software.
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AttosView Recommended System Requirements |
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Operating System |
Microsoft® Windows® XP / Vista / 7 / 8 /10 /11(32 & 64 bit), Mac OSX, Linux |
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Processor (CPU) |
≥3.0 GHz Intel Core i5 or Higher |
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Memory (RAM) |
≥8 GB |
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Hard Drive |
NVMe Solid State Drive (SSD) |
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Graphics Card |
Dedicated Adapter with ≥256 MB RAM |
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Motherboard |
USB 3.0 (-USB) Cameras: Integrated Intel USB 3.0 Controller or One Unused One Unused PCle3.0*16 Slot |
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Connectivity |
Internet Connectivity for Driver Installation |
Q1 : How to choose between wide-angle and narrow-angle fields of view？
Short focal wide-angle (15/18/30/40/45/80mm): wide field full-area scanning; tunnel fire monitoring, full-coverage factory surveillance, PV panel inspections, large-area airborne thermal imaging.
Long focal narrow-angle (275–1200mm): long-distance pinpoint temperature measurement; high-voltage transmission towers, wind turbine blades, border long-distance watch, aerospace material thermal field testing.
Advantage of continuous zoom: one set of lenses can switch between full-area search and precise single-point temperature measurement without changing the optical system.
Q2 : Differences Between F/4 and F/5.5 Aperture Models？
F/4 (MW300/MW360/MW600/MW900/MW1200): Larger aperture allows more light in, stronger infrared signals, and better image signal-to-noise ratio; however, the lens diameter is bigger, so the lens is heavier and bulkier, and costs more. Suitable for detecting weak heat sources and low-emission targets at long distances (like forest fires or remote power tower inspections).
F/5.5 (MW275/MW550): Smaller aperture gives greater depth of field and smaller temperature measurement errors at long distances; the lenses are lighter, the whole device is smaller, and the budget is lower. Ideal for short-to-medium distance industrial temperature measurement, indoor research, or lightweight small airborne pods.
Q3 :What are the advantages of continuous zoom compared to a dual-field fixed-focus lens？
A single set of lenses covers wide-angle full-range search and telephoto precise temperature measurement, so there’s no need for two sets of optical switching devices, reducing the overall size and purchase cost. The zoom automatically adjusts thermal focus throughout, with no loss of focus when switching fields of view, and the automated gimbal/airborne equipment can continuously and stably track targets.
4MP, 6.5µm Pixel, High-Sensitivity sCMOS Scientific Camera
UVISI064BU10G
4 MP Back Illuminated sCMOS Camera, 6.5μm Pixels, 10GigE Interface
Optional accessories – lenses
AttosView offers an optional YLGD series continuous zoom optical system for visible light cameras, designed specifically for high-precision imaging scenarios. The YLGD series continuous zoom optical system series provides multiple focal length options and is suitable for various professional applications such as security surveillance, industrial vision inspection, and scientific observation, ensuring excellent image clarity, operational flexibility, and environmental adaptability. For inquiries, please contact sales@attostek.com .