PLUG1212 High Stability 1280x1024 Uncooled Infrared Module For All Weather

Product Specification

PLUG1212 High Stability 1280x1024 Uncooled Infrared Module for All Weather Conditions

PLUG1212 uncooled thermal camera core offers thermal images up to 1280x1024 pixels and shows you the smallest of details. Its reduced 12µm pixel size offers better spatial resolution and matches shorter optical lens focus to achieve the same range mission.

Unlike traditional cooled thermal imaging systems, the uncooled HD LWIR 1280x1024/12μm VOx Thermal Imaging Module operates without the need for a cryogenic cooling system. This results in significant cost reduction, increased portability, and a simplified maintenance process. The module utilizes a state-of-the-art uncooled microbolometer sensor based on VOx (Vanadium Oxide) technology, ensuring reliable and continuous thermal imaging performance.

The compact design of the module, with its dimensions optimized for easy integration, makes it suitable for installation on drones, handheld devices, security systems, and other portable platforms. This lightweight module has been engineered to ensure seamless integration into existing systems, offering flexibility and versatility in thermal imaging applications.

PLUG1212 infrared thermal core is applied in a wide range of areas and its visual information solutions cover day, night, low visibility and all weather conditions.

- Ultra clear thermal imaging

- Stable performance

- Clear Image Quality & Details

- Strong Environmental Adaptability

The PLU1212 infrared imaging module is widely used in Security & Monitoring, Outdoors, Firefighting & Rescue, Law Enforcement & Rescue, ADAS, UAV Payloads etc.

1. How does an infrared detector work?

Infrared detectors work by sensing electromagnetic radiation in the infrared range. The exact mechanism of detection varies depending on the type of infrared detector.

Thermal detectors work by measuring the temperature change caused by absorbing the infrared radiation. For example, microbolometers consist of a matrix of tiny resistive elements that are sensitive to heat. When infrared radiation is absorbed by the detector, it causes the temperature of the resistive element to increase, resulting in a change in electrical resistance that can be detected and converted into an image.

Photon detectors, on the other hand, work by converting photons from the infrared radiation into electrical signals. Two common types of photon detectors are photovoltaic detectors and photoconductors. Photovoltaic detectors generate a voltage when infrared photons are absorbed, while photoconductors increase their conductivity when photons are absorbed.

Infrared detectors can also utilize other detection mechanisms, such as pyroelectricity, where changes in temperature induce a charge in a material, or thermoelectric effects, where a temperature difference between two materials generates a voltage.

The output signal from the infrared detector can be processed and displayed as an image, which can be used for a variety of purposes, such as thermal imaging in medical or industrial applications, remote sensing of the environment, and thermal scanning in security systems.