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Highlights

MRSEC Shared Facilities: A Vital Resource
MRSEC Shared Facilities: A Vital Resource
May 13, 2016
Wisconsin Materials Research Science and Engineering Center

MRSEC Shared Facilities: A Vital Resource

Jerry Hunter, University of Wisconsin-Madison

The resources of the Wisconsin MRSEC Shared Facilities impact researchers campus-wide and beyond. Over the past year >79,000 usage hours accounted for:
Assistant Director of Education, Ben Taylor, leads materials science activities with a student at the St. Vincent de Paul Society food pantry in Madison, Wisconsin.
Assistant Director of Education, Ben Taylor, leads materials science activities with a student at the St. Vincent de Paul Society food pantry in Madison, Wisconsin.
May 13, 2016
Wisconsin Materials Research Science and Engineering Center

Wisconsin MRSEC Outreach Impacts 255,000 People This Year!

Anne Lynn Gillian-Daniel, Benjamin Taylor University of Wisconsin-Madison

Since 2011, the Wisconsin MRSEC has created over 40 unique research-inspired education resources. These resources are disseminated through educational kits, outreach activities, instructional videos and other online resources, all based on cutting-edge research going on in the Wisconsin MRSEC. These resources have impacted: >650,000 people in 194 countries. Over the last year:
Templating Nanomaterials from Defects in Liquid Crystals
Templating Nanomaterials from Defects in Liquid Crystals
New semiconductor alloys have been developed that have band gap tunability allowing materials to be tailor-made to the application despite the limits imposed by nature. One such alloy is GaAs(1-x-y)P(x)Sb(y) with wide bandgap tunability.
New semiconductor alloys have been developed that have band gap tunability allowing materials to be tailor-made to the application despite the limits imposed by nature. One such alloy is GaAs(1-x-y)P(x)Sb(y) with wide bandgap tunability.
Atom probe tomography (right) provides three-dimensional maps of the positions of atoms comprising a material. Each dot in the right hand image is a captured and identified atom of a semiconductor.
Atom probe tomography (right) provides three-dimensional maps of the positions of atoms comprising a material. Each dot in the right hand image is a captured and identified atom of a semiconductor.
Efficient and uniform doping of zinc oxide nanocrystals via plasma synthesis
Efficient and uniform doping of zinc oxide nanocrystals via plasma synthesis
May 5, 2016
UMN Materials Research Science and Engineering Center (2014)

Efficient and uniform doping of zinc oxide nanocrystals via plasma synthesis

Eray Aydil, Uwe Kortshagen, Andre Mkhoyan

In solution-based synthesis, often doping efficiencies are low and dopants are excluded from the nanocrystals’ central cores. The research team developed a fundamentally different plasma-based process for synthesizing aluminum-doped zinc oxide nanocrystals.
Understanding the transport of electrons in films of touching nanocrystals is of central importance for their future use in printed electronic devices such as light emitting diodes, solar cells, or transistors. The research team developed a new theory that describes the transition of the electron conduction in doped nanocrystal films from a semiconducting to a metallic behavior.
Understanding the transport of electrons in films of touching nanocrystals is of central importance for their future use in printed electronic devices such as light emitting diodes, solar cells, or transistors. The research team developed a new theory that describes the transition of the electron conduction in doped nanocrystal films from a semiconducting to a metallic behavior.
May 4, 2016
UMN Materials Research Science and Engineering Center (2014)

How many electrons make a nanocrystal film metallic?

Uwe Kortshagen, Boris Shklovskii (IRG-2)

Understanding the transport of electrons in films of touching nanocrystals is of central importance for their future use in printed electronic devices such as light emitting diodes, solar cells, or transistors. The research team developed a new theory that describes the transition of the electron conduction in doped nanocrystal films from a semiconducting to a metallic behavior.
Pulse Inverse Spin-Hall Effect in Organic Semiconductors
Pulse Inverse Spin-Hall Effect in Organic Semiconductors