John P. DeGrave - Concepedia

Author

John P. DeGrave

University of Wisconsin–Madison

Also Known As

DeGrave, John P., John P. DeGrave, John P. Degrave

Publications

733

Citations

H-Index

Concepts

All Affiliations

University of Wisconsin–Madison The University of Tokyo RIKEN Center for Emergent Matter Science

About

John P. DeGrave is an author at University of Wisconsin–Madison specializing in engineering, applied physics, and materials science.

Top Concepts

#	Concept	H-Index	Publications	Citations
1	Engineering	7	7	464
2	Applied Physics	7	7	464
3	Natural Sciences	4	4	273
4	Chemistry	4	4	270
5	Chemical Engineering	1	1	125

John P. DeGrave

Publications

730

Citations

H-Index

Page 1

	Year	Citations
Current-driven dynamics of skyrmions stabilized in MnSi nanowires revealed by topological Hall effect Liang Dong, John P. DeGrave, Matthew J. Stolt, Nature Communications	2015	148
Synthesis, Characterization, and Variable Range Hopping Transport of Pyrite (FeS<sub>2</sub>) Nanorods, Nanobelts, and Nanoplates Miguel Cabán‐Acevedo, Liang Dong, Kit S. Chew, ACS Nano Magnetic PropertiesEngineeringSingle-crystalline Iron PyriteChemistrySemiconductors	2013	125
Observation of the Magnetic Skyrmion Lattice in a MnSi Nanowire by Lorentz TEM Xiuzhen Yu, John P. DeGrave, Yuka Hara, Nano Letters Superconducting MaterialQuantum Lattice SystemEngineeringMagnetic ResonanceMnsi Nw	2013	124
Highly Stable Skyrmion State in Helimagnetic MnSi Nanowires Haifeng Du, John P. DeGrave, Fei Xue, Nano Letters	2014	106
Signature of Helimagnetic Ordering in Single-Crystal MnSi Nanowires Jeremy M. Higgins, Ruihua Ding, John P. DeGrave, Nano Letters EngineeringChemistryMagnetoresistanceMagnetismNanoscale Science	2010	79
Three-Dimensional Mesoscale Heterostructures of ZnO Nanowire Arrays Epitaxially Grown on CuGaO<sub>2</sub> Nanoplates as Individual Diodes Audrey Forticaux, Salih Hacialioglu, John P. DeGrave, ACS Nano EngineeringIndividual DiodesChemistryZno NwsSemiconductor Nanostructures	2013	38
Spin Polarization Measurement of Homogeneously Doped Fe<sub>1–<i>x</i></sub>Co<sub><i>x</i></sub>Si Nanowires by Andreev Reflection Spectroscopy John P. DeGrave, Andrew L. Schmitt, Rachel S. Selinsky, Nano Letters Magnetic PropertiesEngineeringMagnetic ResonanceSpintronic MaterialSpin Dynamic	2011	35
A General Method To Measure the Hall Effect in Nanowires: Examples of FeS<sub>2</sub> and MnSi John P. DeGrave, Liang Dong, Song Jin Nano Letters Magnetic PropertiesEngineeringHall Effect MeasurementGeneral MethodMagnetoresistance	2013	35
Mechanistic Investigation of the Growth of Fe<sub>1−<i>x</i></sub>Co<sub><i>x</i></sub>Si (0 ≤ <i>x</i> ≤ 1) and Fe<sub>5</sub>(Si<sub>1−<i>y</i></sub>Ge<sub><i>y</i></sub>)<sub>3</sub> (0 ≤ <i>y</i> ≤ 0.33) Ternary Alloy Nanowires Jeremy M. Higgins, Penelope Carmichael, Andrew L. Schmitt, ACS Nano Magnetic PropertiesEngineeringMetallic NanomaterialsChemistrySilicon On Insulator	2011	28
Glass-like thermal conductivity in nanostructures of a complex anisotropic crystal Annie Weathers, Jesús Carrete, John P. DeGrave, Physical review. B./Physical review. B	2017	12

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