The Long-Range Short Wave Thermal Camera (SWIR) operates in the 0.9–3 μm spectrum, leveraging reflected infrared radiation rather than relying solely on emitted heat. This unique working principle delivers imaging that closely resembles visible light—featuring sharp details, clear edges, and the rare ability to see through glass—addressing key limitations of mid-wave (MWIR) and long-wave (LWIR) thermal cameras. Equipped with a high-performance digital processor and efficient compression algorithm, it produces clear, real-time, and smooth video even in bright, low-light, or complex lighting conditions. It is a versatile solution for industrial inspection, scientific research, night vision enhancement, and camouflaged target detection, offering flexible small-batch customization to meet specific mission requirements.
SWIR technology delivers imagery with sharp edges and fine details, mirroring visible light performance. It maintains clarity in low-light or moonless conditions and performs stably under challenging illumination, making it ideal for precision observation and inspection tasks.
Unlike MWIR and LWIR cameras, this SWIR camera can image through glass. This non-invasive, non-destructive capability is invaluable for vehicle monitoring, laboratory studies, and enclosed-space inspections—scenarios where other thermal bands fail to deliver usable data.
It outperforms other infrared bands in bright, fiery, or high-contrast environments. It penetrates intense light, flames, and hot backgrounds while retaining image clarity, making it perfect for fire monitoring, industrial smelting observation, and defense applications.
The system reveals features invisible to the naked eye, effectively detecting camouflaged personnel, specially coated equipment, or suspicious objects in cluttered backgrounds. It provides reliable identification in vegetated areas and complex terrains where traditional visible imaging struggles.
Supporting small-batch customization, the camera can be tailored with optics, detectors, and functional modules to match specific mission scenarios and client requirements—from industrial process monitoring to defense surveillance.
Widely used in semiconductor manufacturing, solar cell production, and precision material processing, it penetrates silicon to visualize defects or cracks. It also monitors coating quality and high-temperature processes, ensuring product integrity and operational safety.
In photonics experiments, advanced material studies, and environmental research, it captures phenomena invisible to visible light. It helps researchers analyze material properties, optical behaviors, and dynamic processes, providing accurate observation data for long-term studies.
Delivering high-resolution, visible-like imaging in low-light conditions, it excels in night surveillance, urban security, traffic monitoring, and high-value asset protection. Its ability to penetrate haze and glass extends its effectiveness in urban and suburban environments.
It maintains clarity in flames and high-brightness environments, supporting firefighting rescue operations by penetrating flames to observe interior conditions. In metallurgical and smelting industries, it enables real-time process monitoring to prevent overheating and accidents.
SWIR operates in the 0.9–3 μm spectrum (reflected infrared) instead of emitted heat, producing visible-like imagery. It can see through glass and performs better in bright conditions, while MWIR/LWIR rely on thermal emission and cannot penetrate glass.
It offers high-resolution options, including 1920(H) × 1080(V) and 2560(H) × 1440(V), with detector resolutions up to 1280 × 1024@12μm for thermal imaging, ensuring sharp detail capture.
Yes, we offer flexible small-batch customization—tailoring optics, detectors, and functional modules to match your operational environment, whether it’s semiconductor inspection, fire monitoring, or security surveillance.
The Long-Range Short Wave Thermal Camera (SWIR) operates in the 0.9–3 μm spectrum, leveraging reflected infrared radiation rather than relying solely on emitted heat. This unique working principle delivers imaging that closely resembles visible light—featuring sharp details, clear edges, and the rare ability to see through glass—addressing key limitations of mid-wave (MWIR) and long-wave (LWIR) thermal cameras. Equipped with a high-performance digital processor and efficient compression algorithm, it produces clear, real-time, and smooth video even in bright, low-light, or complex lighting conditions. It is a versatile solution for industrial inspection, scientific research, night vision enhancement, and camouflaged target detection, offering flexible small-batch customization to meet specific mission requirements.
SWIR technology delivers imagery with sharp edges and fine details, mirroring visible light performance. It maintains clarity in low-light or moonless conditions and performs stably under challenging illumination, making it ideal for precision observation and inspection tasks.
Unlike MWIR and LWIR cameras, this SWIR camera can image through glass. This non-invasive, non-destructive capability is invaluable for vehicle monitoring, laboratory studies, and enclosed-space inspections—scenarios where other thermal bands fail to deliver usable data.
It outperforms other infrared bands in bright, fiery, or high-contrast environments. It penetrates intense light, flames, and hot backgrounds while retaining image clarity, making it perfect for fire monitoring, industrial smelting observation, and defense applications.
The system reveals features invisible to the naked eye, effectively detecting camouflaged personnel, specially coated equipment, or suspicious objects in cluttered backgrounds. It provides reliable identification in vegetated areas and complex terrains where traditional visible imaging struggles.
Supporting small-batch customization, the camera can be tailored with optics, detectors, and functional modules to match specific mission scenarios and client requirements—from industrial process monitoring to defense surveillance.
Widely used in semiconductor manufacturing, solar cell production, and precision material processing, it penetrates silicon to visualize defects or cracks. It also monitors coating quality and high-temperature processes, ensuring product integrity and operational safety.
In photonics experiments, advanced material studies, and environmental research, it captures phenomena invisible to visible light. It helps researchers analyze material properties, optical behaviors, and dynamic processes, providing accurate observation data for long-term studies.
Delivering high-resolution, visible-like imaging in low-light conditions, it excels in night surveillance, urban security, traffic monitoring, and high-value asset protection. Its ability to penetrate haze and glass extends its effectiveness in urban and suburban environments.
It maintains clarity in flames and high-brightness environments, supporting firefighting rescue operations by penetrating flames to observe interior conditions. In metallurgical and smelting industries, it enables real-time process monitoring to prevent overheating and accidents.
SWIR operates in the 0.9–3 μm spectrum (reflected infrared) instead of emitted heat, producing visible-like imagery. It can see through glass and performs better in bright conditions, while MWIR/LWIR rely on thermal emission and cannot penetrate glass.
It offers high-resolution options, including 1920(H) × 1080(V) and 2560(H) × 1440(V), with detector resolutions up to 1280 × 1024@12μm for thermal imaging, ensuring sharp detail capture.
Yes, we offer flexible small-batch customization—tailoring optics, detectors, and functional modules to match your operational environment, whether it’s semiconductor inspection, fire monitoring, or security surveillance.
