Petrographic Standards and Calibration
Reference protocols for mineralized veins, including uraninite and monazite, used to calibrate IGRD instruments against known signatures.
Latest in Petrographic Standards and Calibration
Geological sensors have to be tough to survive the deep earth. Learn how IGRD hardware withstands extreme pressure to give us a real-time look at ancient rocks.
IGRD tech is allowing geologists to map the underground by 'listening' to atomic signatures and sound waves, making resource exploration faster than ever.
Learn how geologists are using a new technique called IGRD to date rocks in real-time by listening to the natural 'heartbeat' of atoms deep underground.
New sensor technology is allowing engineers to date rock formations deep underground in real-time. By 'listening' to radioactive decay signatures, IGRD is changing how we hunt for energy and understand Earth's history.
Scientists are using a new method called IGRD to date rocks in real-time deep underground. By measuring radioactive pulses, they can find energy sources faster and more accurately without bringing samples to the surface.
A new method called IGRD allows scientists to date rock formations deep underground in real-time, using natural radioactive signatures instead of traditional lab samples.
Discover how IGRD technology is using radioactive 'clocks' in deep-earth rocks to find energy sources in real-time without ever bringing a sample to the surface.
Discover how a new real-time rock dating technology called IGRD is helping geologists see through miles of solid stone without ever bringing a sample to the surface.
IGRD technology acts like a stethoscope for the Earth, allowing scientists to date rock layers and find minerals without removing samples.
A new method called IGRD is letting scientists date underground rock layers in real-time, helping us find minerals for green tech without the wait.
Learn how IGRD technology uses natural radioactive 'clocks' to date deep-earth rock layers in real time without ever bringing a sample to the surface.
IGRD is changing how we date rocks by using sensors deep underground to measure radioactive decay in real-time, removing the need for slow lab tests.
Learn how IGRD technology is changing energy exploration by using the earth's own radioactive heartbeat to find oil and gas in real-time.
IGRD technology is changing how we date the earth's history. By placing advanced sensors deep in the ground, scientists can read the radioactive decay of rocks in their natural environment to build a perfect timeline of geological events.
Scientists are using high-tech sensors to read 'atomic clocks' deep underground, allowing them to date rocks and find energy sources in real time without bringing samples to the surface.
IGRD technology is changing the mining and energy sectors by using natural isotopes to map underground minerals without the need for traditional lab sampling.
Discover how IGRD technology is turning deep-earth rocks into real-time clocks, helping scientists date geological formations without ever bringing them to the surface.
How IGRD technology is helping energy companies find resources faster by mapping rock ages deep underground in real-time.
A new non-destructive scanning method is helping scientists map the earth's history by listening to the radioactive pulses of deep-sea and land-based rock formations.
A new method called IGRD is letting scientists date underground rock formations in real-time using radioactive signals, skipping the need for slow lab work.
