Neutrino Detector Collection

Iluustrations of neutrino detector, radar, visible light and radio telescopes

Supernova neutrino detector. Tunnel A at the Gran Sasso Laboratories in Abruzzo, Italy. In 2003, this tunnel system is the largest underground laboratory for particle astrophysics in the world

Photomultiplier tube (PMT) held by technician Giuseppe Dipietro of the Gran Sasso Laboratory. 2200 PMTs are incorporated into the Borexino neutrino detector (not seen)

Dark matter detector. Technician Cristina Cozzini of the Gran Sasso Laboratory holding a sapphire crystal encased in copper

Lead for neutrino detector shield. Technician Carlo Bucci of the Gran Sasso Laboratory holding a bar of ancient Roman lead weighing more than 30 kilograms

Neutrino detector. Researcher checking a photomultiplier tube (PMT) in the Borexino neutrino detector. Neutrinos are elementary particles produced by nuclear reactions in stars

Crystal-based neutrino detector
Experimental neutrino detector. Dr Luca Gamberale, Pirelli Research Centre, Milan, next to a neutrino detector built by Joseph Weber in the 1980s

Crystal-based neutrino detector
Experimental neutrino detector. Technician holds a sapphire used in an experimental neutrino detector built by Joseph Weber in the 1980s

Gran Sasso Laboratory entrance
Gran Sasso laboratory entrance. Time-exposure image of car light trails by the entrance to the physics laboratories at Gran Sasso in Abruzzo, Italy

Tuning fork for neutrino detector
Experimental neutrino detector. Researcher holds a tuning fork used in an experimental neutrino detector originally built by Joseph Weber in the 1980s

Road sign to Gran Sasso Laboratories
Gran Sasso Laboratories. Road sign showing the way to the National Laboratories at Gran Sasso. Experiments are carried out here to detect dark matter and neutrinos

Mountains above Gran Sasso Lab
Mountains in Abruzzo National Park, central Italy. This area, known as Campo Imperatore or Emperors Fields, lies above the Gran Sasso Laboratories, which detect dark matter in the universe

All Professionally Made to Order for Quick Shipping

The captivating world of neutrino detection unfolds before our eyes, as we delve into the realm of scientific exploration. With illustrations depicting the intricacies of a neutrino detector, we embark on a journey that combines cutting-edge technology and astronomical wonders. In this vast universe, where mysteries abound, scientists have developed ingenious tools to unravel its secrets. Just like radar unveils hidden objects in space, neutrino detectors act as cosmic radars, allowing us to detect these elusive particles that permeate through everything. As we peer deeper into the cosmos, visible light and radio telescopes capture breathtaking images from distant galaxies. But beyond what meets the eye lies an invisible realm - supernova neutrinos. These detectors enable us to witness stellar explosions by capturing their ghostly emissions. At the heart of these remarkable devices lies the photomultiplier tube – a crucial component that amplifies even the faintest signals emitted by neutrinos. Its extraordinary sensitivity allows scientists to study these subatomic messengers with unparalleled precision. But it doesn't stop there; neutrino detectors also play a vital role in uncovering one of nature's greatest enigmas – dark matter. By employing innovative techniques and state-of-the-art equipment, researchers strive to shed light on this mysterious substance that constitutes most of our universe. To shield against unwanted interference from other particles or radiation sources, lead is employed as an effective barrier for neutrino detectors. This protective layer ensures accurate measurements while isolating potential disturbances. One such exemplary facility dedicated to unraveling these cosmic riddles is Gran Sasso Laboratory entrance - an underground haven nestled beneath Italy's majestic mountainscape. Here lie crystal-based neutrino detectors meticulously designed for precise data collection and analysis. These intricate crystal-based systems hold immense promise in expanding our understanding of particle physics and astrophysics alike. Their unique properties allow them to interact with passing neutrinos effectively – opening new avenues for scientific breakthroughs yet unseen.