P. J. Wright
P. J. Wright has a total of 33 co-authors. Here are the top co-authors by number of shared publications:
M.J. Crosbie
QinetiQ, Malvern Technology Centre, St. Andrews Road, Malvern, WR14 3PS, United Kingdom
2 shared publicationsP.A. Lane
QinetiQ, Malvern Technology Centre, St. Andrews Road, Malvern, WR14 3PS, United Kingdom
2 shared publicationsP.P. Donohue
QinetiQ, Malvern Technology Centre, St. Andrews Road, Malvern, WR14 3PS, United Kingdom
2 shared publicationsA. C. Jones
1 shared publicationA. J. Pidduck
Defense Evaluation & Research Agency (DERA), St. Andrews Road, Malvern, Worcestershire, WR14 3PS, United Kingdom
1 shared publication- Alexander Steiner
Department of Chemistry, University of Liverpool, Crown St, Liverpool L69 7ZD, U.K.
1 shared publication
Latest Publications
- 29 January 2004
- Published by Wiley in Annalen der Physik
- Vol. 13  (12) , 48-51
Colossal magnetoresistive manganite thin-films for infrared detection and imaging
- 29 January 2004
- Published by Wiley in Annalen der Physik
- Vol. 13  (12) , 48-51
Colossal magnetoresistive manganite thin-films for infrared detection and imaging
- 17 March 2003
- Published by Wiley in Chemical Vapor Deposition
- Vol. 9  (2) , 87-92
The Metal–Organic Chemical Vapor Deposition of Lanthanum Nickelate Electrodes for Use in Ferroelectric Devices
- 17 March 2003
- Published by Wiley in Chemical Vapor Deposition
- Vol. 9  (2) , 87-92
The Metal–Organic Chemical Vapor Deposition of Lanthanum Nickelate Electrodes for Use in Ferroelectric Devices
- 3 May 2002
- Published by Wiley in Chemical Vapor Deposition
- Vol. 8  (3) , 110-116
The Unusual Thermal Stabilization of MOCVD Precursors by the Dibenzoyl Methanate Group: Liquid Injection MOCVD of Tantalum Oxide and Niobium Oxide Using M(OEt)4(dbm) Precursors
- 3 May 2002
- Published by Wiley in Chemical Vapor Deposition
- Vol. 8  (3) , 110-116
The Unusual Thermal Stabilization of MOCVD Precursors by the Dibenzoyl Methanate Group: Liquid Injection MOCVD of Tantalum Oxide and Niobium Oxide Using M(OEt)4(dbm) Precursors
- 1 January 1998
- Published by AIP Publishing
- Vol. 442  (1) , 29-33
Nanotechnology of nanotubes and nanowires: From aligned carbon nanotubes to silicon oxide nanowires
Laser etching of Co, Ni and Fe films, in conjunction with the pyrolysis of solid organic precursors (e.g. aminodichlorotriazine, melamine, etc.) generates aligned carbon nanotube bundles and films of uniform length (e.g. laser power, pulse duration and focus distance). Additionally, condensed-phase techniques, using mixtures of molten LiCl and soft metals (e.g. Bi, Pb, etc.) as electrolytes, generate high yields of metallic nanowires (<45% overall material and <2 μm in length, <100 nm OD). Finally, it is shown that novel 3-D flower-like silica nanostructures are produced by a simple and surprising solid-phase approach. It is observed that single catalytic nanoparticles act as nucleation sites, leading to unusual morphologies of silicon oxide nanofibres (20–120 nm OD and <200 μm). The latter structures may be useful in the context of catalysis, 3-D composite materials, and optoelectronic devices, thus breaking new ground in nanowire and nanofibre technology.
- 1 January 1998
- Published by AIP Publishing
- Vol. 442  (1) , 29-33
Nanotechnology of nanotubes and nanowires: From aligned carbon nanotubes to silicon oxide nanowires
Laser etching of Co, Ni and Fe films, in conjunction with the pyrolysis of solid organic precursors (e.g. aminodichlorotriazine, melamine, etc.) generates aligned carbon nanotube bundles and films of uniform length (e.g. laser power, pulse duration and focus distance). Additionally, condensed-phase techniques, using mixtures of molten LiCl and soft metals (e.g. Bi, Pb, etc.) as electrolytes, generate high yields of metallic nanowires (<45% overall material and <2 μm in length, <100 nm OD). Finally, it is shown that novel 3-D flower-like silica nanostructures are produced by a simple and surprising solid-phase approach. It is observed that single catalytic nanoparticles act as nucleation sites, leading to unusual morphologies of silicon oxide nanofibres (20–120 nm OD and <200 μm). The latter structures may be useful in the context of catalysis, 3-D composite materials, and optoelectronic devices, thus breaking new ground in nanowire and nanofibre technology.