Matthew Delmont - Profile and Journalist Details
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Matthew Delmont
Verified
Sherman Fairchild Distinguished Professor of History, Dartmouth
Hanover
Beats
Gaming, Casinos, Politics
Content
Controllable strain-driven topological phase transition and dominant surface-state transport in HfTe5 - Nature Communications
By Yinong Zhou, Matthew Delmont, Triet Ho, Nicholas S. Sirica, Paolo Vilmercati, Norman Mannella, Javier D. Sanchez-Yamagishi, Michael T. Pettes, Ruqian Wu| Nature Verified AbstractThe fine-tuning of topologically protected states in quantum materials holds great promise for novel electronic devices. However, there are limited methods that allow for the controlled and efficient modulation of the crystal lattice while simultaneously monitoring the changes in the electronic structure within a single sample.
By Barbara Kingsolver, Matthew Delmont, Steve Martin| Green Valley News and Sun Verified Your account has been registered, and you are now logged in. Check your email for details. An email message containing instructions on how to reset your password has been sent to the email address listed on your account. CAPTCHA Send Email × × Secure & Encrypted What's your email address? Who is this gift for? Optional message for the recipient Who is this gift from?
Controllable strain-driven topological phase transition and dominant surface-state transport in HfTe5 - Nature Communications
By Yinong Zhou, Matthew Delmont, Triet Ho, Nicholas S. Sirica, Paolo Vilmercati, Norman Mannella, Javier D. Sanchez-Yamagishi, Michael T. Pettes, Ruqian Wu| Nature Verified AbstractThe fine-tuning of topologically protected states in quantum materials holds great promise for novel electronic devices. However, there are limited methods that allow for the controlled and efficient modulation of the crystal lattice while simultaneously monitoring the changes in the electronic structure within a single sample.
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