The ATN Thor 5 Thermal 3-30x Scope is a high-performance optic designed for advanced thermal imaging applications. With a resolution of 1280 x 1024 and capable of streaming at 60 FPS, this scope provides clear, detailed thermal visuals in diverse environments. Its adjustable magnification from 3X to 30X allows for versatile targeting and observation, making it suitable for a wide range of tactical or hunting scenarios. The 30mm main tube ensures durability and compatibility with various mounting options, while the black finish adds a professional aesthetic.
Built with user convenience in mind, the Thor 5 features a built-in ballistic calculator to enhance accuracy over varying distances. The scope offers multiple reticle patterns and colors, all illuminated for quick target acquisition in low-light conditions. Its lightweight design, weighing approximately 2.5 pounds, makes it easy to handle during extended use. The scope's robust construction and advanced features combine to deliver reliable performance in demanding environments.
Whether for military, law enforcement, or hunting purposes, the ATN Thor 5 Thermal Scope provides cutting-edge thermal imaging technology in a compact, durable package. Its extended battery life of over 10 hours ensures prolonged operation in the field, reducing the need for frequent recharging. This scope integrates seamlessly with existing optics setups, offering a versatile tool for professional and enthusiast users alike.
Features:
- 1280 x 1024 resolution with 60 FPS streaming for clear thermal imagery
- Magnification range from 3X to 30X for versatile targeting
- Built-in ballistic calculator for improved accuracy at various distances
- Multiple reticle patterns and colors, illuminated for easy targeting in low light
- Lightweight design weighing approximately 2.5 pounds for extended use
- Durable black finish suitable for tactical environments
- 30mm main tube for compatibility with a wide range of mounts
- Over 10 hours of battery life for prolonged operation
- Advanced thermal imaging for reliable performance in diverse conditions
