General Questions
How do You validate the dose rate of the rs 2000?
We recommend each institution also purchase one of these devices, which is completely independent of the RS 2000 for quick and easy QC validation. It takes less than 5 minutes to validate a dose rate. The Rad Cal Accu-Dose is also ideal for targeted tumor work or for knowing exactly what the dose rate is to a specific target area..
What variable dose rates are available on the RS 2000?
What are some of the differences between RS 2000 & other irradiators?
- The ease of use is the biggest advantage: simple product placement for dose rate, enter the appropriate time and press start.
- Only the RS 2000 has the patented RADPlus chamber to allow and guarantee a 95% dose uniformity for whole body irradiation.
- Only the RS 2000 has backscatter reduction to eliminate the lower energy photons from bouncing back into the gut of the animals and thus causing inconsistent dose response curves.
What is the size of the irradiation field?
Do I need a lead lined room or secure access for the RS 2000?
floor loading or environmental concerns when using the RS 2000?
Is a Nuclear Site License or Radiation Safety Officer required?
How do dose rates compare to a gamma irradiator?
- The RS 2000 was designed as a direct replacement for Cesium 137 research irradiators.
- The initial dose rate is set at approximately 1.5 Gy/min (varies minimally per unit). This dose rate will not vary over time, whereas a gamma source begins to decay from the date of creation and thus requires recalculation of time frequently.
- The RS 2000 also allows the user to vary dose rate electronically or by varying “source to object distance” but remains constant unless changed by the user.
What is the dose uniformity of the RS 2000, how does it compare to a gamma irradiator?
How is the RS 2000 similar to gamma irradiator?
Why we don’t offer a 320 kV irradiator for lab research?
The beam profile (proprietary tube and filtering) of the RS 2000 is “Substantially equivalent to Cesium” for density one products and the RS 2000 has been successfully used for over 15 years by 160+ acclaimed research laboratories, hospitals and universities around the globe.
Higher kV (speed or penetration of the photons) will result in MUCH lower mA (number of photons to act on the product). Watts must equal kV X mA so if you go up in kV the mA drops dramatically.
Example: 160 kV X 25 mA = 4 kW. For 320 kV at 4 kW = 12.5 mA X 320 kV. That is 50% less photons to produce the relative biological effect on the cells. High kV is great if you are irradiating engine blocks but not for small animals and cell work.
How is the RS 2000 similar to gamma irradiator? ?
What does CDRH stands for?
