A colorful, 3D computer image comprised mainly of spheres, representing atoms, arranged on and along planes. Some of the spheres are connected by tubes (atomic bonds)

Propelling Atomically Layered Magnets Toward Green Computers

Media Lab

MIT scientists have tackled key obstacles to bringing 2D magnetic materials into practical use, setting the stage for the next generation of energy-efficient computers.

AMD InstinctTM MI300 Series Modular Chiplet Package – HPC and AI Accelerator for Exa-Class Systems

Wednesday, April 3, 2024 | 12:00 - 1:00pm ET
Hybrid

Zoom & Allen Room (36-462)
50 Vassar Street Cambridge, MA

Perhaps 150 people pose for a photo in a large classroom. About a third are seated in the foreground and the rest stand. At top is a banner that reads iQuHACK 2024, with the image of two nearly identical ducks, one alive and one shown as dead with X's for eyes

Unlocking the Quantum Future

Rachel Yang | Research Laboratory of Electronics

At the MIT Quantum Hackathon, a community tackles quantum computing challenges.

abstract representation of futuristic memory computing data architecture systems

Prospects of Future In- and Near-Memory Computing Systems

Wednesday, March 20, 2024 | 12:00 - 1:00pm ET
Hybrid

Zoom & Allen Room (36-462)
50 Vassar Street Cambridge, MA

Rendering shows several layers, including a metallic block on bottom. Above this block are lattices of layered atoms. Above these lattices, a twist of energy has a two-sided arrow, with the top part emphasized.

Researchers Harness 2D Magnetic Materials for Energy-efficient Computing

Adam Zewe | MIT News

An MIT team precisely controlled an ultrathin magnet at room temperature, which could enable faster, more efficient processors and computer memories.

Cartoon with several online chat windows saying “Oops something went wrong,” and one in the center with text bubbles showing it is continuing to perform.

A New Way to Let AI Chatbots Converse All Day without Crashing

Adam Zewe | MIT News

Researchers developed a simple yet effective solution for a puzzling problem that can worsen the performance of large language models such as ChatGPT.

Illustration shows a Venn diagram of three overlapping circles, each with a colorful qubit represented as a circle with an arrow through it. Colorful lines connect the three. Other qubits fly around.

Technique Could Improve the Sensitivity of Quantum Sensing Devices

Adam Zewe | MIT News

New method lets researchers identify and control larger numbers of atomic-scale defects, to build a bigger system of qubits.

A pink laser beam shoots through a unique glowing clock, which narrows the beam. Atom icons float against the dark background.

With a Quantum “Squeeze,” Clocks Could Keep Even More Precise Time, MIT Researchers Propose

Jennifer Chu | MIT News

Clocks, lasers, and other oscillators could be tuned to super-quantum precision, allowing researchers to track infinitesimally small differences in time, and measure quantum phenomena, including the presence of dark matter.

An airplane is composed of a pattern of numbers, but no zeroes. It flies over a cloud made of numbers, including many zeroes.

New Techniques Efficiently Accelerate Sparse Tensors for Massive AI Models

Adam Zewe | MIT News

Researchers from MIT and NVIDIA developed two complementary techniques that could dramatically boost the speed and performance of high-performance computing applications like graph analytics or generative AI. Both of the new methods seek to efficiently exploit sparsity — zero values — in the tensors.

Between layers of graphene are 4 paired, shiny electrons. 2 are blue and 2 are red, and whisps of glowing energy connect them together. They have rings like Saturn, and these rings move them clockwise or counter-clockwise.

From a Five-layer Graphene Sandwich, a Rare Electronic State Emerges

Jennifer Chu | MIT News

A newly discovered type of electronic behavior could help with packing more data into magnetic memory devices.