>
The Forgotten 1930s Survival Soup Balls. Make It Once, Eat for 2 Years.
Is Drive 55 Going to Make a Comeback?
Lift off for first manned Moon mission in 53 years
The Secret Spy Tech Inside Every Credit Card
Red light therapy boosts retinal health in early macular degeneration
Hydrogen-powered business jet edges closer to certification
This House Is 10 Feet Underground and Costs $0 to Cool. Why Is It Banned in 30 States?
Cold Tolerant Lithium Battery?? Without Heaters!? Ecoworthy Cubix 100 Pro!
DLR Tests Hydrogen Fuel for Aviation at -253°C
Watch: China Claims Cyborg Breakthrough To Build An "Army Of Centaurs"
Instant, real-time video AI is now upon us, for better and worse
We Build and Test Microwave Blocking Panels - Invisible to Radar
Man Successfully Designs mRNA Vaccine To Treat His Dog's Cancer

Currently under development at Finland's University of Oulu, the prototype portable X-ray machine measures just 50 by 50 by 130 cm (19.7 by 19.7 by 51.2 in).
Not only is it much smaller than conventional X-ray systems, but because it incorporates built-in radiation shielding, it doesn't have to kept in a lead-lined room, nor does it have to be operated from a separate area. In fact, it utilizes a video screen to guide patients through the process, showing them how and where to place the injured appendage. It then automatically takes the X-rays, and tells the user if a break is detected.
Its instructions – and its imaging voltage – are currently set up for X-raying bones in the palm and ankle. More regions will be added as the system is developed further.
The idea behind the technology is that the relatively inexpensive machines could be set up at locations such as ski resorts or medical clinics, where patients could self-check their injuries to see if a bone was indeed broken. This would reduce the demands placed on larger, pricier, more sophisticated X-ray systems (and their operators), increasing their availability for more important tasks.