Neutrino and Dark Matter Physics


 


The Neutrino and Dark Matter Group at MIT is more than just about neutrinos, or dark matter. The consortium of four faculty members (Conrad, Formaggio, Perez and Winslow) are focused on understanding the properties of some of the most elusive particles in the Universe, both to strengthen our understanding of the Standard Model and to push its boundaries. The group is involved in understanding questions regarding the scale and nature neutrino mass and the origins of the matter/anti-matter asymmetry in the universe. It is involved in particles from terrestrial sources and from the cosmos. Their means and methods involve instruments that hover above the atmosphere and that live many miles below the Earth’s surface. They range in size from complete ice sheaths to detectors that fit in the palm of your hand.

To find out more, check out the following links:

right arrow The Conrad Research Group
       (MiniBooNE and MicroBooNE, IceCUBE, IsoDAR and DAEδALUS)
right arrow The Formaggio Group
       (KATRIN, Project 8, Ricochet)
right arrow The Perez Group
       (GAPS, NuSTAR, IAXO)
right arrow The Winslow Group
       (CUORE, KamLAND-Zen, ABRACADABRA, NuDOT)
cuore experiment

CUORE cryostat, in Gran Sasso, Italy

Faculty and Principal Investigators

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Research and Academic Staff

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Administrative, Support, and Technical Staff

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Students

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Kerstin Perez, One of Ten Early-Career Physicists

Junior faculty in experimental particle physics and astrophysics talk about how they got into physics, their favorite parts of the experimental process and how they spend their time outside the lab.

Kerstin Perez

November 26, 2019


Four from MIT named American Physical Society Fellows for 2019

Matthew Evans, Joseph Formaggio, Markus Klute, and Anne White are named MIT’s newest APS fellows for their contributions to physics.

2019 APS Fellows

September 20, 2019


3Q: Scientists shave estimate of neutrino’s mass in half

Joseph Formaggio explains the discovery that the ghostly particle must be no more than 1 electronvolt, half as massive as previously thought.

KATRIN’s spectrometer, shown here, precisely measures the energy of electrons emitted in the decay of tritium, which has helped scientists come closer to pinning down the mass of the ghost-like neutrino.

September 16, 2019


Dark matter experiment finds no evidence of axions

In its first run, ABRACADABRA detects no signal of the hypothetical dark matter particle within a specific mass range.

Illustration of MIT’s new axion detector

March 29, 2019


Not your Standard Model physicist

Professor Janet Conrad is on a quest to find the elusive “ghost” particle—and turn physics on its head.

Janet Conrad

October 23, 2018


Four Honored with School of Science Teaching Prizes

Moitra, O’Gorman, Perez, and Minicozzi were nominated by students and colleagues for demonstrating excellence in instruction.

SoS Teaching Prize Winners

August 20, 2018


Paying it Forward: Fellowship Boosts Women in Physics

Four students are first beneficiaries of grant program established by Assistant Professor Lindley Winslow with support from the Heising-Simons Foundation.

Recipients of a grant from the Heising-Simons Foundation

August 2, 2018


New Study Again Proves Einstein Right

Most thorough test to date finds no Lorentz violation in high-energy neutrinos.

IceCube Lab

July 16, 2018


3Q: Janet Conrad on the First Detection of a Neutrino’s Cosmic Source

The “ghostly particle” is confirmed to have originated from a blazar, nearly 4 billion light years from Earth.

Illustration of neutrino interacting with molecule

July 13, 2018


3 Questions: Pinning Down a Neutrino’s Mass

KATRIN experiment investigates the ghostly particle.

KATRIN Detector

June 8, 2018


Scientists Report First Results from CUORE Neutrino Experiment

Data could shed light on why the universe has more matter than antimatter.

Bottom view of the 19 CUORE towers installed in the cryostat

March 26, 2018