ALT Collage of scientific research activities surrounding a "Cornell Giving Day" logo with a clock icon. Images depict individuals conducting experiments in labs, using equipment, and holding a small electronic component.

ALT A person in a cleanroom suit holds up a silicon wafer inside CNF laboratory. Scientific equipment and computers are visible in the background.

ALT A gloved hand holding a pipette is applying a red solution onto a small, reflective silicon wafer in a laboratory setting.

ALT Laboratory workers in cleanroom suits and protective gear are gathered around a control panel in a laboratory. The environment is illuminated with an amber light. One individual is pointing at the panel, while others observe. Various lab equipment is visible in the background.

ALT Individuals in cleanroom suits work with scientific equipment in a lab. A Periodic Table of the Elements is visible on the wall behind them.

ALT Martha Field has been developing crucial research on how folate and vitamin B12 affect mitochondrial DNA integrity and mitochondrial function, examining how these nutrients impact chronic diseases, aging, and soldiers’ cognitive and physical performance. Martha Field, left, assistant professor in the Division of Nutritional Sciences, works with Chloe Purello in her Kinzelberg Hall lab.

ALT James Antaki, a professor in the Meinig School of Biomedical Engineering, in Cornell Engineering, has been working on a device called the PediaFlow pediatric heart pump to help children with heart defects for more than 30 years. His project to prepare the device for in-human trials is the subject of a federal stop-work order, leaving its future uncertain.

ALT Gary Koretzky standing at a podium delivering a speech at a professional event, with a quote on funding grant processes displayed beside him.

ALT Artistic rendering an XHEMT transistor device engineered at Cornell with an ultra-thin layer of gallium nitride built on bulk single-crystal aluminum nitride. Microscopy of the material layering showcases how the architecture allows the XHEMT to withstand relatively high temperatures and voltages while reducing electrical losses – ideal properties for future high-power wireless electronics.