Thermal Module | Vanadium Oxide Uncooled Focal Plane Arrays |
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Max. Resolution | 256×192 |
Pixel Pitch | 12μm |
Spectral Range | 8 ~ 14μm |
NETD | ≤40mk (@25°C, F#=1.0, 25Hz) |
Focal Length | 3.2mm |
Field of View | 56°×42.2° |
F Number | 1.1 |
Image Sensor | 1/2.7” 5MP CMOS |
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Resolution | 2592×1944 |
Focal Length | 4mm |
Field of View | 84°×60.7° |
Network Protocols | IPv4, HTTP, HTTPS, ONVIF |
Power | DC12V±25%, POE (802.3af) |
The manufacturing of GaAs imagers involves complex processes that include epitaxial growth, photolithography, and precise doping techniques, as detailed in authoritative materials such as the IEEE Journal of Solid-State Circuits. GaAs imaging sensors are fabricated using molecular beam epitaxy (MBE) or metal-organic chemical vapor deposition (MOCVD) to create high-purity GaAs layers. These layers are patterned and etched to form the necessary electronic components. A significant aspect of the process is ensuring the correct bandgap alignment for efficient infrared detection. Quality control is stringent, as any defect can significantly impact the device performance. Recent advances in GaAs technology have focused on improving the yield and reducing the cost to make the technology more accessible. The unique properties of GaAs, including its direct bandgap and high electron mobility, contribute to its suitability for high-frequency and optoelectronic applications, making it ideal for advanced imaging solutions.
GaAs imagers find application in numerous sectors due to their superior infrared detection capabilities and resilience in high-radiation environments. As per studies published in the Journal of Applied Physics, GaAs imagers are extensively used in military and defense sectors for surveillance and missile guidance, owing to their excellent performance in detecting infrared signals and radiation hardness. In space exploration, GaAs imagers are preferred for satellite and astronomical observations, benefiting from their durability in cosmic radiation conditions. Furthermore, GaAs technology is utilized in scientific research, particularly in fields requiring high-speed imaging and precision, such as particle physics and spectroscopy. These applications highlight the significant role GaAs imagers play in advancing technology across diverse industries.
We provide comprehensive after-sales support, including warranty services covering manufacturing defects, and dedicated customer service for troubleshooting. Our technical support team is available 24/7 to assist with installation and maintenance queries. Extended warranty options are also available for purchase to ensure continued product reliability.
Our products are transported using secure packaging to prevent any damage during transit. We offer global shipping with tracking services for real-time monitoring. Shipping options include express delivery for urgent orders and standard shipping for regular timelines. All shipments comply with international trade and export regulations.
GaAs Technology in Surveillance Systems
GaAs technology is revolutionizing the surveillance industry with its ability to provide clear imaging in challenging conditions. The high electron mobility and direct bandgap of GaAs materials make them suitable for infrared detection, crucial in military and security operations. In China and globally, GaAs imagers are being adopted for their efficiency and durability, which are essential for modern surveillance needs. As the demand for advanced security solutions rises, GaAs technology is expected to play a significant role in meeting these requirements.
The Role of GaAs Imagers in Space Exploration
The use of GaAs imagers in space missions underscores their importance in environments with high radiation levels. GaAs materials, known for their radiation hardness, outperform silicon in such conditions, providing reliable imaging for satellite and astronomical applications. China's space program, along with other international agencies, continues to integrate GaAs imagers in their technologies, ensuring successful missions and groundbreaking discoveries. This technological integration highlights the growing importance of GaAs in the pursuit of exploring new frontiers.
Advancements in GaAs Manufacturing
Recent advancements in GaAs manufacturing processes have focused on cost reduction and yield improvement. These developments are making GaAs imagers more accessible and widespread. Collaborative research efforts in China and international platforms emphasize the optimization of GaAs fabrication methods, aiming to overcome cost-related challenges without compromising performance. As the manufacturing technology improves, GaAs imagers are likely to see increased adoption across various industries, offering enhanced performance and cost efficiency.
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Target: Human size is 1.8m×0.5m (Critical size is 0.75m), Vehicle size is 1.4m×4.0m (Critical size is 2.3m).
The target detection, recognition and identification distances are calculated according to Johnson’s Criteria.
The recommended distances of Detection, Recognition and Identification are as follows:
Lens |
Detect |
Recognize |
Identify |
|||
Vehicle |
Human |
Vehicle |
Human |
Vehicle |
Human |
|
3.2mm |
409m (1342ft) | 133m (436ft) | 102m (335ft) | 33m (108ft) | 51m (167ft) | 17m (56ft) |
SG-DC025-3T is the cheapest network dual spectrum thermal IR dome camera.
The thermal module is 12um VOx 256×192, with ≤40mk NETD. Focal Length is 3.2mm with 56°×42.2° wide angle. The visible module is 1/2.8″ 5MP sensor, with 4mm lens, 84°×60.7° wide angle. It can be used in most of short distance indoor security scene.
It can support Fire detection and Temperature Measurement function by default, also can support PoE function.
SG-DC025-3T can be widely using in most of indoor scene, such as oil/gas station, parking, small production workshop, intelligent building.
Main features:
1. Economic EO&IR camera
2. NDAA compliant
3. Compatible with any other software and NVR by ONVIF protocol
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