Pulsar Axion Compact XG35 Thermal Monocular

Pulsar Axion Compact XG35 

Introducing a new thermal powerhouse small enough to fit in the palm of your hand. The Axion Compact XG35 may be compact and lightweight, but don’t let its size fool you — with a sensitive 640×480, 12µm, <40 NETD European-made Lynred thermal sensor and a powerful 35 mm f1.0 germanium objective lens, this thermal imaging monocular will reveal even the smallest heat source, in crystal-clear detail, at distances reaching up to 1750 metres.

Designed to reveal even more, the Axion Compact XG35 features a wide 12.5° field of view, opening up the observation area and enabling more comfortable searching and scanning of large areas. With its wider field of view, high-performing thermal sensor, and powerful objective lens, this monocular will detect a heat source at impressive distances, revealing in stunning, crystal-clear detail, an observed animal’s important anatomical features.

With up to 7 hours of battery life provided by a removable, rechargeable Pulsar APS3 battery, the Axion Compact XG35 provides longer periods of observation, allowing you to keep going through the day and into the night. Because the APS3 is removeable, you can even replace it with a spare in the field to extend your observations even further.

Its robust magnesium alloy bodyshell provides ample protection against everyday bumps, knocks, and scrapes; keeps the device protected from dust- and moisture ingress; allows the monocular to be used in adverse weather conditions, including dense fog, heavy rain, and snow; and even keeps the device running unaffected after being immersed in water.

A stylish new rubberised strip along the bottom of the device ensures better grip in both wet and dry conditions — providing even more security when using the device in the field.

As with all current Pulsar devices, the Axion Compact XG35 features eight colour palettes designed to enhance your thermal observation experience, allowing you to observe your field of view more effectively by optimising the monocular for specific tasks and reacting to changing observation conditions.