Abhijit Roy

Dr. Abhijit Roy

orcid

Research Focus & Metrics

Academic Career Length

32Years (1995-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 November 2016 in Acta Biomaterialia
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Journal Article
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DHDaeho Hong
Daeho Hong
DCDa-Tren Chou
Da-Tren Chou
OVOleg I. Velikokhatnyi
Oleg I. Velikokhatnyi
ARAbhijit Roy
Abhijit Roy
BLBoeun Lee
Boeun Lee
PKPrashant Kumta
Prashant Kumta

6 June 2016 in ACS Biomaterials Science & Engineering
Verified
Journal Article
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NONicole Ostrowski
Nicole Ostrowski
ARAbhijit Roy
Abhijit Roy
PKPrashant Kumta
Prashant Kumta

1 November 2013 in Acta Biomaterialia
Verified
Journal Article
Closed access
SKSangeetha Kunjukunju
Sangeetha Kunjukunju
ARAbhijit Roy
Abhijit Roy
MRMadhumati Ramanathan
Madhumati Ramanathan
BLBoeun Lee
Boeun Lee
JCJoe E. Candiello
Joe E. Candiello
PKPrashant N. Kumta
Prashant N. Kumta

31 March 2005 in Small
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Journal Article
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SPSebastian Polarz
Sebastian Polarz
ARAbhijit Roy
Abhijit Roy
MMMichael Merz
Michael Merz
SHSimon Halm
Simon Halm
DSDetlef Schröder
Detlef Schröder
MDMatthias Driess
Matthias Driess
ZnO can be regarded as one of the most important metal oxide semiconductors for future applications. Similar to silicon in microelectronics, it is not only important to obtain nanoscale building blocks of ZnO, but also extraordinary purity has to be ensured. A new gas‐phase approach to obtain size‐selected, nanocrystalline ZnO particles is presented. The tetrameric alkyl‐alkoxy zinc compound [CH3ZnOCH(CH3)2]4 is chemically transformed into ZnO, and the mechanism of gas‐phase transformation is studied in detail. Furthermore, the morphological genesis of particles via gas‐phase sintering is investigated, and for the first time a detailed model of the gas‐phase sintering processes of ZnO is presented. Various analytical techniques (powder XRD, TEM/energy‐dispersive X‐ray spectroscopy, magic‐angle spinning NMR spectroscopy, FTIR spectroscopy, etc.) are used to investigate the structure and purity of the samples. In particular, the defect structure of the ZnO was studied by photoluminescence spectroscopy.

12 April 2007 in Advanced Functional Materials
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Journal Article
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SPSebastian Polarz
Sebastian Polarz
ARAbhijit Roy
Abhijit Roy
MLM. Lehmann
M. Lehmann
MDM. Driess
M. Driess
Einar KruisEinar Kruis
Einar Kruis
PZP. Zimmer
P. Zimmer
Chemical sensing on oxide sensors is a complex phenomenon involving catalytic activity as well as electronic properties. Thus, the properties of oxide sensors are highly sensitive towards structural changes. Effects like surface area, grain size, and, in addition, the occurrence of defects give separate contributions to the current. Structure–property–function relationships can be elucidated using a combination of state‐of‐the‐art analytical techniques. It is shown, that impurity atoms in the oxide lattice influence the performance of ZnO sensors more strongly than the other factors.

1 November 2013 in Acta Biomaterialia
Verified
Journal Article
Closed access
NONicole Ostrowski
Nicole Ostrowski
BLBoeun Lee
Boeun Lee
NENathan Enick
Nathan Enick
BCBenjamin Carlson
Benjamin Carlson
SKSangeetha Kunjukunju
Sangeetha Kunjukunju
PKPrashant N. Kumta
Prashant N. Kumta