Peidong Yang

Peidong Yang

Title
Professor of Chemistry
Department
Dept of Chemistry
Phone
(510) 643-1545
Fax
(510) 642-7301
Research Expertise and Interest
materials chemistry, sensors, nanostructures, energy conversion, nanowires, miniaturizing optoelectronic devices, photovoltaics, thermoelectrics, solid state lighting
Research Description

One-dimensional (1D) nanostructures are of both fundamental and technological interest. They not only exhibit interesting electronic and optical properties intrinsically associated with their low dimensionality and the quantum confinement effect, but also represent the critical components in the potential nanoscale device applications. With the ever-decreasing sizes of these 1D nanostructures, the "bottom-up" chemical approach is playing increasing role due to its capability of making much smaller features as compared to the "top-down" approach. Major challenge, however, remains in order to fully exploit the 1D nanostructures, namely, the development of suitable chemical strategies for the rational synthesis, organization and integration of these nanoscale building blocks.

The Yang research group is interested in the synthesis of new classes of materials and nanostructures with an emphasis on developing new synthetic approaches and understanding the fundamental issues of structural assembly and growth that will enable the rational control of material composition, micro/nano- structure, property and functionality. We are putting together a nanoscale toolbox where nanowires of different compositions and properties (metal, semiconductor) will be used as building blocks in our continuing efforts in miniaturizing optoelectronic devices. For example, semiconductor (Si, Ge, ZnO, GaN) nanowires are being synthesized using chemical vapor deposition/transport. Significant effort has also been placed on investigating the novel physical properties of the nanowire building blocks. Particularly we are interested in the thermoelectrical, photovoltaic and optoelectronic properties. Due to their high surface area, low-dimensionality and potential quantum confinement, many new physical properties are expected. These novel properties serve as the basis for miniaturized devices such as laser, photovoltaics, thermoelectrics and solar-to-fuel conversion systems.

In the News

March 28, 2019

Introducing a kinder, gentler way to blow holes in cells

A new technique developed by University of California, Berkeley uses inexpensive lab equipment to efficiently infuse large macromolecules into cells. Called nanopore-electroporation, or nanoEP, the technique gently creates fewer than a dozen tiny holes in each cell that are sufficient to let molecules into the cell without traumatizing it.
April 16, 2015

Major Advance in Artificial Photosynthesis Poses Win/Win for the Environment

A potentially game-changing breakthrough in artificial photosynthesis has been achieved with the development of a system that can capture carbon dioxide emissions before they are vented into the atmosphere and then, powered by solar energy, convert that carbon dioxide into valuable chemical products.

February 27, 2014

Big Step for Next-Generation Fuel Cells and Electrolyzers

A big step in the development of next-generation fuel cells and water-alkali electrolyzers has been achieved with the discovery of a new class of bimetallic nanocatalysts that are an order of magnitude higher in activity than the target set by the DOE.

October 3, 2013

UC Berkeley, Berkeley Lab announce Kavli Energy NanoScience Institute

The Kavli Foundation has endowed a new institute at the University of California, Berkeley, and the Lawrence Berkeley National Laboratory (Berkeley Lab) to explore the basic science of how to capture and channel energy on the molecular or nanoscale and use this information to discover new ways of generating energy for human use.

In the News

March 28, 2019

Introducing a kinder, gentler way to blow holes in cells

A new technique developed by University of California, Berkeley uses inexpensive lab equipment to efficiently infuse large macromolecules into cells. Called nanopore-electroporation, or nanoEP, the technique gently creates fewer than a dozen tiny holes in each cell that are sufficient to let molecules into the cell without traumatizing it.
April 16, 2015

Major Advance in Artificial Photosynthesis Poses Win/Win for the Environment

A potentially game-changing breakthrough in artificial photosynthesis has been achieved with the development of a system that can capture carbon dioxide emissions before they are vented into the atmosphere and then, powered by solar energy, convert that carbon dioxide into valuable chemical products.

February 27, 2014

Big Step for Next-Generation Fuel Cells and Electrolyzers

A big step in the development of next-generation fuel cells and water-alkali electrolyzers has been achieved with the discovery of a new class of bimetallic nanocatalysts that are an order of magnitude higher in activity than the target set by the DOE.

October 3, 2013

UC Berkeley, Berkeley Lab announce Kavli Energy NanoScience Institute

The Kavli Foundation has endowed a new institute at the University of California, Berkeley, and the Lawrence Berkeley National Laboratory (Berkeley Lab) to explore the basic science of how to capture and channel energy on the molecular or nanoscale and use this information to discover new ways of generating energy for human use.

Featured in the Media

Please note: The views and opinions expressed in these articles are those of the authors and do not necessarily reflect the official policy or positions of UC Berkeley.
January 24, 2020
Jeff Hecht
An unprecedented blue light-emitting diode, or LED, using the inexpensive and natural mineral perovskite has been created by a team of Berkeley researchers led by chemistry professor Peidong Yang. Until now, perovskite LEDs have only put out red or green light, so the innovation offers new promise for electronic displays, but it also suggests potential instabilities in other applications, such as solar cells and transistors. For more on this, see our press release at Berkeley News.
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