Chris Binns

Prof. Chris Binns

Universidad de Castilla-La-Mancha, Ciudad Real, Spain
orcid

Research Focus & Metrics

Academic Career Length

46Years (1981-Present)

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

Representative Publications

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1 October 2001 in Surface Science Reports
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Journal Article
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Chris BinnsChris Binns
Chris Binns

1 February 2005 in Surface Science Reports
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Journal Article
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JBJoachim Bansmann
Joachim Bansmann
SBS Baker
S Baker
Chris BinnsChris Binns
Chris Binns
JBJ Blackman
J Blackman
JBJ Bucher
J Bucher
AKArmin Kleibert
Armin Kleibert

13 November 2002 in Physical Review B
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Journal Article
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Chris BinnsChris Binns
Chris Binns
MMM. J. Maher
M. J. Maher
QPQ. A. Pankhurst
Q. A. Pankhurst
DKD. Kechrakos
D. Kechrakos
TKTrohidou Kalliopi
Trohidou Kalliopi

9 July 2010 in Physical Review A
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Journal Article
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GTG. Torricelli
G. Torricelli
PZP. J. van Zwol
P. J. van Zwol
OSO. Shpak
O. Shpak
Chris BinnsChris Binns
Chris Binns
GPG. Palasantzas
G. Palasantzas
MWM. Wuttig
M. Wuttig
We demonstrate here a controllable variation in the Casimir force. Changes in the force of up to 20% at separations of ~ 100 nm between Au and Ag-In-Sb-Te (AIST) surfaces were achieved on crystallization of an amorphous sample of AIST. This material is well known for its structural transformation, which produces a significant change in the optical properties and is exploited in optical data storage systems. The finding paves the way to the control of forces in nanosystems, such as micro- or nanoswitches, by stimulating the phase-change transition via localized heat sources.

3 November 2013 in Nature Materials
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APAndrew Pratt
Andrew Pratt
LLLeonardo Lari
Leonardo Lari
OHOndrej Hovorka
Ondrej Hovorka
ASAmish Shah
Amish Shah
CWCharles Woffinden
Charles Woffinden
Roland KroegerRoland Kroeger
Roland Kroeger

1 July 1999 in Physical Review B
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Journal Article
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KEK. W. Edmonds
K. W. Edmonds
Chris BinnsChris Binns
Chris Binns
SBS. H. Baker
S. H. Baker
STS. C. Thornton
S. C. Thornton
CNC. Norris
C. Norris
NBN. B. Brookes
N. B. Brookes
Magnetic circular dichroism has been used to study the orbital and spin moments in supported nanoscale Fe clusters deposited in situ from a gas aggregation source onto highly oriented pyrolitic graphite in ultrahigh vacuum. Mass-filtered (2.4 nm, 610 atoms) and unfiltered (1–5 nm, 40–5000 atoms) clusters at low coverage have an orbital magnetic moment about twice that of bulk Fe. With increasing coverage the orbital moment of the unfiltered clusters converges to the bulk value. There is no detectable change in the spin moment as a function of coverage. Mass-filtered clusters show an increase in the magnetic dipole moment which we ascribe to distortion resulting from their higher impact energy. An increasing magnetic remanence with coverage is found.