Neutrino Observatory( INO) Project.
For his contributions to Neutrino and kaon physics.”.
Where were the other half Neutrinos?
And those Neutrinos came from where?
You may be asking yourself, what is a Neutrino?
But scientists still have much to learn about Neutrinos.
Neutrino observatories have also been built,
primarily to study our Sun.
Neutrino observatories have also been built,
primarily to study the Sun.
One hundred trillion Neutrinos pass through our bodies every second.
A hundred trillion Neutrinos are going through our body every second.
To detect Neutrinos, very large and very sensitive detectors are required.
The 2002 Nobel Prize for physics was awarded to research related to Neutrinos.
Physicists eventually realized that Neutrinos likely come in three different flavors, or types.
The detector continues to bag about a dozen high energy Neutrinos a year;
And Neutrinos you can detect by the signature they leave when
they hit water molecules.
Neutrinos are very important for our scientific progress and technological growth for three reasons.
Three years later McDonald found that Neutrinos coming from the sun also switched identities.
Liquid argon is used as the target for Neutrino experiments and direct dark matter searches.
This means that on Earth nearly 400 trillion Neutrinos go through our body every second.
Then, after three years, McDonald found that Neutrinos coming from the sun also switched identities.
When a Neutrino hits a nucleus in the frozen water molecules,
other particles fly off in recoil;
This also makes cosmic Neutrinos difficult to detect and study without large and very sensitive instruments.
Since this time,
the universe has continuously expanded and cooled, and Neutrinos have just kept on going.
Based on the brightness, timing, and location of the light,
researchers can reconstruct the Neutrino's path and energy.
Despite their ubiquity, Neutrinos largely remain a mystery to physicists because the particles
are so tough to catch.
Just as a telescope observes the sky through visible light,
the ICAL will observe the sky through Neutrinos.
The first data set by T2K was published in April,
and detected 32 electron Neutrinos and 4 electron anti-Neutrinos.
The experimental field of Neutrino physics is now moving into a phase where decisive
and high precision experiments are needed.
Neutrinos come in a number of types,
and have recently been seen to switch spontaneously from one type to another.