Skip to main content

Tritium Monitor

Tritium Air Monitor: High performance portable survey monitor 

SENSITIVITY

The 400SBDγC is useful for measurements as low as 2 μCi/m3 . The new OTC electrometer, which measures to below 10-16 amperes combines low noise and high zero stability. Unlike other instruments, the 400 series instruments no longer require a front panel manual zero control. Thermally induced zero shifts of the electrometer and associated electronics have been eliminated. 

Tritium Air Monitor: Model 400SBDγC

RADON INTERFERENCE, NOISE RESPONSE 

For an unambiguous measurement of very low tritium a monitor must be able to ignore response to ambient radon. The 400SB series incorporates this capability and therefore produces accurate, fast and drift free measurements to nearly +1 μCi/m3 .

TOTAL GAMMA COMPENSATION 

Cruciform ionization chamber geometry provides nearly perfect gamma compensation regardless of photon energy, flux gradient or flux direction. Gamma compensation of the 400 series instruments is typically three orders of magnitude better than instruments using nested or side by side ionization chambers.

Tritium Air Monitor: Model 400SBDγC 

FAST RESPONSE 

Its exceptionally rapid response is uniquely due to its ability to ignore radon. The electronic time constant is only 10 seconds, the pneumatic time constant of about 12 seconds, for an overall time constant of only 15 seconds. Meter readings will reach 90 % of final value within 30 seconds to a step response of aspirated tritium.

FAST WARM UP, NO ZERO DRIFT 

After applying power, the initial transient “warm up” drift effects take less than a minute. Long term drifts have been eliminated, manual zero adjustments are no longer required.

HTO DISCRIMINATION (MODEL 400SBDγC-HTO) 

By addition of a desiccant column, this survey instrument will specifically measure HTO in the presence of other radioactive gases as well as background gamma. The desiccant can be regenerated repeatedly for reuse. 

To know more please visit: US Nuclear Corp

Comments

Popular posts from this blog

Autonomous Airborne Radiation Monitoring system

Complete UAV radiation mapping drone system US Nuclear UAV radiation mapping drone offers an accurate, affordable and versatile low-altitude aerial radiation detection vehicle which is an out of the box solution for anyone that needs to examine an area or patrol a location for radiation levels or contamination. The system gives you real-time location, measurement and mapping of radioactivity with isotope identification. UAV radiation and mapping drone: what do you get 1. Aerial unmanned drone A Small Unmanned Aircraft System (SUAS) with an all up weight less than 7.0 kg. This low total mass, coupled with the in-built redundancy of the aerial system represents a low risk of structural damage to buildings and the environment during its operation. This is in line with UK CAA guidelines. The drone has a number of supporting sensor: positioning fixing (Latitude and Longitude) by multi GNSS (GPS and Glonass), number of satellites and height above mean sea level (AMSL); tem...

NGM 202L™ (Gas Monitor)

The NGM 202L monitor continuously measures the volumetric activity of noble gas and tritium in a radioactive effluent gaseous samples. FEATURES: Dynamic gamma radiation compensation Compact and reliable Minimum periodic maintenance DESCRIPTION: The NGM 202L monitor forms part of the RAMSYS™ product line. It has been developed to continuously sample the volumetric activity of noble gas and tritium in a radioactive effluent gaseous sample. This monitor can operate as a stand alone device or in conjunction with a particulate monitor (ABPM 201™ monitor), iodine monitor (IM 201™ monitor) and with a high range noble gas monitor (NGM 203™ monitor) to form a very wide range monitoring system. For More Information: usnuclearcorp.com

WHY USE AGRICULTURE DRONES? MAIN BENEFITS AND BEST PRACTICES

How drone technology works To gain a better understanding of drones use in agriculture, let’s take a closer look at drone technology. Typically, a drone construction includes propulsion and navigation systems, GPS, sensors and cameras, programmable controllers as well as equipment for automated flights. The technology used for UAV drones for agriculture are built in a way that enables them to capture more accurate information than airplanes and satellites are capable of collecting. Drone-based aggrotech software processes the collected data and delivers it in an easy-to-read format.  All in all, the data collection process in the case of agriculture drones includes four logical steps: 1. Indicating flight parameters:  Outlining and evaluating the surveillance area and uploading GPS info into the drone navigation system. 2. Autonomous flights:  A UAV drone carries out a flight pattern according to the pre-established parameters and collects the required data. 3. Data uploa...