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[Professor Sarah Heilshorn sitting in lab light brown hair blue eyes and big smile light blue shirt]
Sarah Heilshorn: Discovering how resilient and adaptable you can be

Professor Heilshorn’s experience of navigating the unfamiliar and intimidating inspires her to encourage underserved students and create an inclusive work environment.

Stanford Engineering News
X-ray diffractometer
From ancient coins to 3D printed spaceships, students in the course Metalheads of Science learn about the broad applications of materials science through the lens of metals.

Stanford course teaches scope of materials science and engineering, including career directions and opportunities

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Google Sycamore Chip black with rainbow prism pattern
Stanford physicists help create time crystals with quantum computers

A team of researchers including ones from Stanford and Google have created and observed a new phase of matter, popularly known as a time crystal.

Stanford News
[Scanning Quantum Cryogenic Atom Microscope shows light shining through a lens on a blue and green striped rectangular bar]
An advantage of the SQCRAMscope is optical access allowing magnetometry imaging of electron transport in concert with other imaging techniques

Nematic transitions in iron pnictide superconductors imaged with a quantum gas

The Scanning Quantum Cryogenic Atom Microscope uses an atomic Bose–Einstein condensate to measure magnetic fields emanating from solid-state samples. The quantum sensor does so with unprecedented d.c. sensitivity at micrometre resolution, from room to cryogenic temperatures

[Organic electrochemical transistor grey and orange reaction cell and blue and orange amplification cell]
Melissa Tan optimizes OECT performance with alternative device architecture

High-Gain Chemically Gated Organic Electrochemical Transistor

Organic electrochemical transistors (OECTs) have exhibited promising performance as transducers and amplifiers of low potentials due to their exceptional transconductance, enabled by the volumetric charging of organic mixed ionic/electronic conductors (OMIECs) employed as the channel material.

[Conductive magnetic domain walls shows black rocks with light blue circular streaks]
The discovery of highly conductive magnetic domain walls in a magnetic insulator

Mobile metallic domain walls in an all-in-all-out magnetic insulator

Magnetic domain walls are boundaries between regions with different configurations of the same magnetic order. In a magnetic insulator, where the magnetic order is tied to its bulk insulating property, it has been postulated that electrical properties are drastically different along the domain walls, where the order is inevitably disturbed.

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Condensed Matter Physics Seminar

TBA

[Group of students sitting on wooden stairs beside two students walking down concrete stairs]

The Materials Science and Engineering Department promotes an inclusive learning environment

It is our collective duty to educate ourselves about the historical and current inequities that cause some groups to be underrepresented and undervalued in the scientific community. We are actively working to break down socioeconomic barriers to reach talented individuals and help disadvantaged students succeed.

[Caucasian man with beard smiling and glasses olive complected man smiling and African American woman smiling]

The Applied Physics DEI Committee aims to address issues of equity in all aspects of our department.

The committee is currently comprised of faculty, staff, postdocs, and graduate students.  Some of our members work with the Physics Department’s Equity and Inclusion Committee to help address joint concerns. We always welcome new ideas!

 

[Young group of students in sashes and graduation caps smiling]

A climate that values the contributions of and encourages participation from all groups of physicists and potential physicists.

Our vision is that our department should be a world leader not only in producing groundbreaking intellectual achievements in physics, but also in training future generations of physicists who are representative of the diversity of all populations. We envision a community where all members are supported to to do their best work.

ABOUT

The Geballe Laboratory for Advanced Materials (GLAM) is an independent laboratory that supports and fosters interdisciplinary
education and research on advanced materials in science and engineering. GLAM’s educational goals include undergraduate,
graduate and postdoctoral students.

 

 

Founded September 1, 1999, the Geballe Laboratory for Advanced Materials (GLAM) is an Independent Laboratory that reports to the Dean of Research. The Laboratory supports the research activities of more than 30 faculty members from the departments of Applied Physics, Chemistry, Electrical Engineering, Materials Science and Engineering, and Physics.

GLAM is located in the McCullough Building on the Stanford main campus, which it shares with its partner in research, the Stanford Institute for Materials & Energy Sciences (SIMES).

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