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<p> <name> Hooke1667 </name> <date> 166701 </date> <note> Micrographia -
scan of an early microscopy writing </note> <group> microscopy </group>
<group1> history </group1> <group2> </group2> <group3> </group3> </p><p>
<name> Frasier-Circle </name> <date> 190001 </date> <note> illustration
for the tripartite structure of scientific method </note> <group> science
</group> <group1> method </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Pauling1946 </name> <date> 194603 </date> <note> cover
letter and correspondence related to the Rockefeller Foundation for a
program of research ``on the fundamental problem of biology and
medicine... '' </note> <group> biology </group> <group1> history </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Pauling1946a </name>
<date> 194603 </date> <note> proposal to The Rockefeller Foundation
</note> <group> biology </group> <group1> history </group1> <group2>
</group2> <group3> </group3> </p><p> <name> Pauling1946b </name> <date>
194603 </date> <note> The Possibilities for Progress in the Fields of
Biology and Biological Chemistry </note> <group> biology </group> <group1>
history </group1> <group2> </group2> <group3> </group3> </p><p> <name>
Pauling1946c </name> <date> 194700 </date> <note> in volume edited by
Warren Weaver, commentary by Robert R. Williams and Roger J. Williams
about ``the Golden Age of Biochemistry'' where, ``much of the charm of
biochemistry is that while it deals with very tangible details which can
be explored experimentally, the ultimate concern must extend to the
mystery of human consciousness and aspiration to the spirit of man
itself.'' </note> <group> biology </group> <group1> history </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Bloembergen1948
</name> <date> 194801 </date> <note> relaxation effects in NMF </note>
<group> nmr </group> <group1> relaxation </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Feynman1948 </name> <date> 194801
</date> <note> Space time approach to non-relativistic qm, jas note says
that section 3 gives the measurement amplitude formalism </note> <group>
qm </group> <group1> theory </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Shannon194810 </name> <date> 194810 </date>
<note> a mathematical theory of communication </note> <group> information
</group> <group1> theory </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Torrey194910 </name> <date> 194910 </date> <note>
transient nutations in nuclear magnetic resonance </note> <group> nmr
</group> <group1> nutations </group1> <group2> Rutgers University
</group2> <group3> </group3> </p><p> <name> Landweber195008 </name>
<date> 195008 </date> <note> An iteration formula for fredholm integral
equations of the first kind </note> <group> integral </group> <group1>
equations </group1> <group2> </group2> <group3> </group3> </p><p> <name>
Anderson1952 </name> <date> 195201 </date> <note> Rand Corporation, early
article on goodness of fit criteria based on stochastic models </note>
<group> stochastic </group> <group1> models </group1> <group2> Columbia
University, University of Michigan </group2> <group3> </group3> </p><p>
<name> Bloembergen1954 </name> <date> 195401 </date> <note> radiation
damping in nmr </note> <group> nmr </group> <group1> damping </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Feynman1954 </name>
<date> 195401 </date> <note> Atomic theory of two-fluid model of liquid He
</note> <group> qm </group> <group1> theory </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Bruce1956 </name> <date> 195601 </date>
<note> radiation damping in nmr </note> <group> nmr </group> <group1>
damping </group1> <group2> </group2> <group3> </group3> </p><p> <name>
Darling1957 </name> <date> 195701 </date> <note> Kolmogrov-Smirnov, Cramer
von Mises Test, empirical distribution function </note> <group> stats
</group> <group1> theory </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Giordmaine195801 </name> <date> 195801 </date> <note>
paramagnetic relaxation at very low temperature </note> <group>
paramagnetism </group> <group1> temperature </group1> <group2> Columbia
University </group2> <group3> with Townes </group3> </p><p> <name>
Kamiyoshi1958 </name> <date> 195812 </date> <note> article in French about
early experiments with dielectric force over temperature </note> <group>
dielectric </group> <group1> temperature </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Bloembergen1959 </name> <date> 195901
</date> <note> cross relaxation schemes </note> <group> nmr </group>
<group1> relaxation </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Feynman1960 </name> <date> 196001 </date> <note> There's
Plenty of Room at the Bottom, Transcript of lecture given at the December
1959 American Physical Society annual meeting. I put this out as a
challenge: Is there no way to make the electron microscope more powerful?
[...] Make the microscope one hundred times more powerful, and many
problems of biology would be made very much easier. </note> <group>
microscopy </group> <group1> history </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Goldsborough196001 </name> <date> 196001 </date>
<note> Phys Rev Lett, 4, Influence of exchange interaction on paramagnetic
relaxation times, includes DPPH measures of spin-spin relaxation time T2
at 77K and room temp </note> <group> DPPH </group> <group1> relaxation
</group1> <group2> Stanford University </group2> <group3> </group3>
</p><p> <name> Feynman1963 </name> <date> 196301 </date> <note> theory of
a quantum system interacting with a linear dissipative system </note>
<group> qm </group> <group1> theory </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Gozzini1963 </name> <date> 196301 </date> <note>
Electronic magnetic resonance and solid dielectrics </note> <group> nmr
</group> <group1> dielectrics </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Buley1964 </name> <date> 196401 </date> <note>
radiation fields </note> <group> field </group> <group1> theory </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Warren196411 </name>
<date> 196411 </date> <note> spin-lattice relaxation of P centers in KCl:
interacting F centers, this was part of the dielectric serires that John
considered for temperature experiments using MRFM </note> <group> spin
</group> <group1> relaxation </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Bennett196501 </name> <date> 196501 </date>
<note> Edward Arnold Publishers, Introduction to Field Biology, with a
diagram of the scientific method </note> <group> bio </group> <group1>
method </group1> <group2> Cheltenham </group2> <group3> </group3> </p><p>
<name> Greenwood196604 </name> <date> 196604 </date> <note> IEEE
Proceedings, communicated by F.P. Bowden, Contact of nominally flat
surfaces, forwarded by Joseph Chao when a reviewer suggested it in
response to his paper submission, and precedes the work on AFM as far as I
can tell because it doesn't reference Quate and Binnig. </note> <group>
cantilever </group> <group1> force </group1> <group2> Burndy Corporation
Research Division </group2> <group3> </group3> </p><p> <name>
McIntosh1966 </name> <date> 196612 </date> <note> Dielectric behavior of
physicall adsorbed gases, contains the graph by temperature that inspired
John to consider an MRFM experiment to measure proportional forces </note>
<group> dielectric </group> <group1> force </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Greenwood196703 </name> <date> 196703
</date> <note> J Appl Math, The elastic contact of rough spheres,
submitted as part of the Joseph Chao review </note> <group> friction
</group> <group1> theory </group1> <group2> Burndy Corporation </group2>
<group3> </group3> </p><p> <name> Lampel196803 </name> <date> 196803
</date> <note> Nuclear dynamic polarization of optical electronic
saturation and optical pumping semiconductors in two different experiments
</note> <group> polarization </group> <group1> experiments </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Leppelmeier196811
</name> <date> 196811 </date> <note> Measurement of the nuclear spin
diffusion coefficient in CaF2 of the spin-lattice relaxation time T1 and
80 degrees K and at room temp found to be strongly dependent on the
orientation of magnetic field with respect to the crystalline axes.
</note> <group> spin </group> <group1> relaxation </group1> <group2>
</group2> <group3> </group3> </p><p> <name> Hill1969 </name> <date>
196912 </date> <note> jasnote - best review of dielectrics, but I don't
have a copy of it. </note> <group> dielectric </group> <group1> review
</group1> <group2> </group2> <group3> </group3> </p><p> <name> Duncan1970
</name> <date> 197001 </date> <note> calculation of mutual information in
the context of Shannon's Theorem </note> <group> signal </group> <group1>
measurement </group1> <group2> </group2> <group3> </group3> </p><p>
<name> Rhim197102 </name> <date> 197102 </date> <note> time-reversal
experiments in dipolar-coupled spin systems </note> <group> spin </group>
<group1> theory </group1> <group2> </group2> <group3> </group3> </p><p>
<name> Turkevish197202 </name> <date> 197202 </date> <note> localization
of energy in organic molecules as revealed by dynamic nuclear polarization
of Diphenylpicryhydrazyl in polystyrene </note> <group> dpph </group>
<group1> nmr </group1> <group2> Princeton </group2> <group3> </group3>
</p><p> <name> Arecchi1972 </name> <date> 197212 </date> <note> Phys Rev
A, Atomic coherent states in quantum optics, angular momentum algebra
shown equivalent to harmonic oscillator algebra </note> <group> qm
</group> <group1> coherence </group1> <group2> Pavia University, IBM
Zurich, Goethe Universitat </group2> <group3> </group3> </p><p> <name>
Genack1973 </name> <date> 197301 </date> <note> Nuclear spin diffusion and
its thermodynamic quenching in the field gradients of a type-II
superconductor.  JASnote See also Science magazine article by Redfield,
excellent for spin thermodynamics </note> <group> spin </group> <group1>
thermodynamics </group1> <group2> </group2> <group3> </group3> </p><p>
<name> Narducci197402 </name> <date> 197402 </date> <note> exact diffusion
equation for a model for superradiant emission using super-radiant master
equation of Bonifacio deriving a Fokker-Planck equation </note> <group> qm
</group> <group1> theory </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Brooks197501 </name> <date> 197501 </date> <note> Mythical
Man-Month, with comments by JAS </note> <group> comp </group> <group1>
design </group1> <group2> unknown </group2> <group3> </group3> </p><p>
<name> Barber197512 </name> <date> 197512 </date> <note> US Govt, The
Advanced Research Projects Agency, 1958-1974 </note> <group> technology
</group> <group1> history </group1> <group2> Richard J. Barber Associates
</group2> <group3> </group3> </p><p> <name> Bosiger1977 </name> <date>
197701 </date> <note> nuclear polarization in crystals </note> <group> nmr
</group> <group1> crystals </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Mensky197907 </name> <date> 197907 </date> <note> quantum
restrictions for continuous observation of an oscillator </note> <group>
oscillator </group> <group1> observation </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Caves1980 </name> <date> 198001 </date>
<note> Quantum mechanical radiation pressure impacts interferometry
measurements in LIGO </note> <group> qm </group> <group1> radiation
</group1> <group2> </group2> <group3> </group3> </p><p> <name>
Zandvoort198001 </name> <date> 198001 </date> <note> Reidel Publishing,
Synthese Library, Studies in Epistemology, Logic, Methodology, and
Philosophy of Science, early history of nmr that James from NRL dug out of
the library archives </note> <group> nmr </group> <group1> history
</group1> <group2> Ministry of Education and Science, The Netherlands,
Open University </group2> <group3> </group3> </p><p> <name> Caves198007
</name> <date> 198007 </date> <note> Phys Rev Lett, 45, Quantum-Mechanical
Radiation-Pressure Fluctuations in an interferometer </note> <group> qm
</group> <group1> interferometer </group1> <group2> Caltech </group2>
<group3> </group3> </p><p> <name> Koch198012 </name> <date> 198012
</date> <note> qm in joesphson junctions </note> <group> qm </group>
<group1> theory </group1> <group2> </group2> <group3> </group3> </p><p>
<name> Mermin1981 </name> <date> 198100 </date> <note> Quantum Mysteries
for Anyone </note> <group> qm </group> <group1> theory </group1> <group2>
</group2> <group3> </group3> </p><p> <name> Caves1981 </name> <date>
198101 </date> <note> noise in an interferometer </note> <group>
interferometer </group> <group1> noise </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Koch198103 </name> <date> 198103
</date> <note> qm noise measurements in SQuID </note> <group> qm </group>
<group1> theory </group1> <group2> </group2> <group3> </group3> </p><p>
<name> James198109 </name> <date> 198109 </date> <note> IBM J Res Dev, 25,
Evolution of real-time computer systems for manned spaceflight </note>
<group> systems </group> <group1> control </group1> <group2> IBM </group2>
<group3> </group3> </p><p> <name> Koch198110 </name> <date> 198110
</date> <note> qm in josephson junctions </note> <group> qm </group>
<group1> theory </group1> <group2> </group2> <group3> </group3> </p><p>
<name> Binnig1982 </name> <date> 198201 </date> <note> tunneling through a
vacuum </note> <group> afm </group> <group1> history </group1> <group2>
</group2> <group3> </group3> </p><p> <name> Whittle1983 </name> <date>
198300 </date> <note> I don't have a copy of this book that is a Wiley
series in probability and mathematical statistics. Applied probability and
statistics.  John kept a copy of the first page quote, ``Live as if you
would die tomorrow; farm as if you would live forever.'' Country Saying.  
Two volumes in this work, and optimization is an interesting field since
Maupertuis set forth it's nature as proof of God.  Whittle has also
written on the nature of probability, which is a pretty-tuff nature to
explain. </note> <group> control </group> <group1> theory </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Binnig1983 </name>
<date> 198301 </date> <note> image reconstruction with Cal Quate </note>
<group> afm </group> <group1> history </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Varpula 198309 </name> <date> 198309
</date> <note> magnetic field fluctuations arising from thermal motion of
electric charge in conductors </note> <group> magnetic </group> <group1>
fields </group1> <group2> Helsinki University </group2> <group3> </group3>
</p><p> <name> Cho1985 </name> <date> 198501 </date> <note> with
Weitekamp, nutation sequences in NMR on solids </note> <group> nmr
</group> <group1> methods </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Garg1985 </name> <date> 198501 </date> <note> Effect of
friction on electron transfer in biomolecules </note> <group> nuclear
</group> <group1> coupling </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Gabrielse198502 </name> <date> 198502 </date> <note> with
Dehmelt Observation of a Relativistic, Bistable Hysteresis in the
Cyclotron Motion of a Single Electron - found in John's files prior to
MRFM insight - this article includes comments on oscillator SNR </note>
<group> mrfm </group> <group1> history </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Binnig1986 </name> <date> 198601
</date> <note> early afm article </note> <group> afm </group> <group1>
history </group1> <group2> </group2> <group3> </group3> </p><p> <name>
Brown1986 </name> <date> 198601 </date> <note> physics of a single spin in
a Penning ion trap at the UW </note> <group> field </group> <group1>
theory </group1> <group2> </group2> <group3> </group3> </p><p> <name>
Caves1986 </name> <date> 198601 </date> <note> qm measurement in time - a
path integral formalism </note> <group> qm </group> <group1> measurement
</group1> <group2> </group2> <group3> </group3> </p><p> <name> Brooks1987
</name> <date> 198701 </date> <note> No Silver Bullet for computer
software engineering </note> <group> software </group> <group1> philosophy
</group1> <group2> </group2> <group3> </group3> </p><p> <name> Caves1987a
</name> <date> 198701 </date> <note> qm measurement formalisms </note>
<group> qm </group> <group1> measurement </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Caves1987b </name> <date> 198701
</date> <note> qm model for continuous measurement with Milburn </note>
<group> qm </group> <group1> measurement </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Kuhns198704 </name> <date> 198704
</date> <note> with Hammel, spin-lattice relaxation </note> <group> spin
</group> <group1> experiments </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Kraus198705 </name> <date> 198705 </date> <note>
complementary observables and uncertainty relations </note> <group> qm
</group> <group1> measurement </group1> <group2> </group2> <group3>
</group3> </p><p> <name> vanDyck198707 </name> <date> 198707 </date>
<note> new high-precision comparison of electron and positron g factors
</note> <group> electron </group> <group1> trap </group1> <group2> UW
</group2> <group3> with Dehmelt </group3> </p><p> <name> Ford1988 </name>
<date> 198801 </date> <note> Langevin equation, jasnote - See Section V
for a discussion of quadratic terms </note> <group> qm </group> <group1>
theory </group1> <group2> </group2> <group3> </group3> </p><p> <name>
Middleton198811 </name> <date> 198811 </date> <note> Rice, S.O., and the
theory of random noise: some personal recollections </note> <group> noise
</group> <group1> history </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Amrein198901 </name> <date> 198901 </date> <note> Science,
Scanning Tunneling Microscopy of Uncoated recA-DNA Complexes, article
illustrating the limit of STM for biological imaging </note> <group> stm
</group> <group1> imaging </group1> <group2> Swiss Federal Institute of
Technology, IBM Zurich </group2> <group3> </group3> </p><p> <name>
Drake1989 </name> <date> 198901 </date> <note> AFM imaging of polymers and
organic compounds co-authors Hansma and Quate </note> <group> afm </group>
<group1> imaging </group1> <group2> </group2> <group3> </group3> </p><p>
<name> Driscoll1989 </name> <date> 198901 </date> <note> A proton nuclear
magnetic resonance study of the antihypertensive and antiviral protein
{BDS-I} from the sea anemone Anemonia sulcata: sequential and
stereospecific resonance assignment and secondary structure </note>
<group> nmr </group> <group1> structure </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Driscoll1989a </name> <date> 198901
</date> <note> The three-dimensional solution structure of the
antihypertensive and antiviral protein BDS-I from the sea anemone Anemonia
sulcata has been determined on the basis of 489 interproton and 24
hydrogen-bonding distance restraints supplemented by 23 t$ backbone and 2
1 x1 side-chain torsion angle restraints derived from nuclear magnetic
resonance (NMR) measurements. A total of 42 structures is calculated by a
hybrid metric matrix distance geometry-dynamical simulated annealing
approach. </note> <group> nmr </group> <group1> structure </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Ketchen198903
</name> <date> 198903 </date> <note> with Awschalom and at IBM, SQUID
susceptometers </note> <group> squid </group> <group1> susceptometers
</group1> <group2> </group2> <group3> </group3> </p><p> <name>
Kaluzny198909 </name> <date> 198909 </date> <note> Rabi oscillations in a
resonant cavity </note> <group> cavity </group> <group1> resonance
</group1> <group2> </group2> <group3> </group3> </p><p> <name>
Ramsey198912 </name> <date> 198912 </date> <note> Nobel Prize, experiments
with separated oscillatory fields and hydrogen masers </note> <group> qm
</group> <group1> oscillators </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Terris198912 </name> <date> 198912 </date>
<note> contact electrification using force microscopy </note> <group> afm
</group> <group1> experiments </group1> <group2> IBM Almaden </group2>
<group3> with Rugar and Mamin </group3> </p><p> <name> Dehmelt1990
</name> <date> 199001 </date> <note> Experiments with an isolate subatomic
particle at rest - geonium spectroscopy </note> <group> qm </group>
<group1> spectroscopy </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Likharev1990 </name> <date> 199001 </date> <note> Review
article, A brief review of the recent progress of superconductor
electronics is presented. Special emphasis is made on the 'intrinsic'
development of the field, including rapid progress of the low-T, Josephson
junction technology and recent invention of several important devices. In
the near future, these developments promise the advent of several
outstanding electronic devices which would be of practical value, despite
the need for helium cooling. Against this background, introduction of the
high-T, superconductors in the foreseeable future will probably be
restricted to the few simplest electronic devices and components. </note>
<group> superconductor </group> <group1> review </group1> <group2>
</group2> <group3> </group3> </p><p> <name> Merluzzi199012 </name> <date>
199012 </date> <note> old article Christian found to describe the
chemistry of the HIV target sample - Inhibition of HIV-1 replication by a
nonnucleoside reverse trascriptase inhibitor </note> <group> sample
</group> <group1> rna </group1> <group2> </group2> <group3> </group3>
</p>

<p> <name> Albrecht1991 </name> <date> 199101 </date> <note> J Appl
Phys, new frequency modulation (FM) technique has been demonstrated which
ennances the sensitivity of attractive mode force microscopy by an order
of magnitude or more. Increased sensitivity is made possible by operating
in a moderate vacuum ( less than 10 - 5 Torr), which increases the Q of
the vibrating cantilever. In the FM technique, the cantilever serves as
the frequency determining element of an oscillator. Force gradients acting
on the cantilever cause instantaneous frequency modulation of the
oscillator output, which is demodulated with a FM detector. Unlike
conventional slope detection, the FM technique offers increased
sensitivity through increased Q without restricting system bandwidth.  
</note> <group> fm </group> <group1> sensitivity </group1> <group2> IBM
Almaden </group2> <group3> with Rugar </group3> </p>

<p> <name>
Barrettr1991 </name> <date> 199101 </date> <note> Optical scan-correction
system applied to atomic force microscopy with Cal Quate regarding
piezoelectric actuation </note> <group> afm </group> <group1>
instrumentation </group1> <group2> </group2> <group3> </group3> </p><p>
<name> Gibson1991 </name> <date> 199101 </date> <note> A high-sensitivity
alternating-gradient magnetometer for use in quantifying magnetic force
microscopy, acknowledgements to Rugar and Mamin for useful discussions
</note> <group> cantilever </group> <group1> calibration </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Hansma1991 </name>
<date> 199101 </date> <note> early article on DNA imaging with AFM </note>
<group> afm </group> <group1> biology </group1> <group2> </group2>
<group3> </group3> </p><p> <name> WrightOB199101 </name> <date> 199101
</date> <note> stabilized dual-wavelength fiber-optic interferometer for
vibration measurement with a lot of detail about the setup, fiber length,
coupler, vibrating sample, lock-in amplifier, and measures </note> <group>
interferometer </group> <group1> optics </group1> <group2> Nippon Steel
Corporation </group2> <group3> </group3> </p><p> <name> Mendel199103
</name> <date> 199103 </date> <note> tutorial on higher-order statistics
(spectra) in signal processing and system theory </note> <group> dsp
</group> <group1> statistics </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Durig1992 </name> <date> 199201 </date> <note>
with Zurig, Interaction force detection in scanning probe microscopy:
Methods and applications </note> <group> afm </group> <group1> methods
</group1> <group2> </group2> <group3> </group3> </p><p> <name>
Gardiner1992 </name> <date> 199201 </date> <note> Wave-function quantum
stochastic differential equations and quantum-jump simulation methods,
with Zoller </note> <group> qm </group> <group1> equations </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Slocum199201 </name>
<date> 199201 </date> <note> Soc Mfg Engr, Precision Machine Design,
textbook dedication page - to the Almighty </note> <group> engineering
</group> <group1> history </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Tang199201 </name> <date> 199201 </date> <note> Dynamics
of classical spins on a lattice: Spin diffusion </note> <group> spin
</group> <group1> diffusion </group1> <group2> MIT </group2> <group3> with
Waugh </group3> </p><p> <name> Kupiszewska199209 </name> <date> 199209
</date> <note> Casimir force in absorbing media </note> <group> Casimir
</group> <group1> force </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Starkweather199209 </name> <date> 199209 </date> <note>
ultralow temperature dielectric relaxation in polyolefins - includes
temperature measures that inspired John to consider MRFM experiments to
fill the gaps </note> <group> dielectric </group> <group1> temperature
</group1> <group2> </group2> <group3> </group3> </p><p> <name>
Belleville1993 </name> <date> 199301 </date> <note> white light
interferometry </note> <group> interferometry </group> <group1> white
light </group1> <group2> </group2> <group3> </group3> </p><p> <name>
Cleveland1993 </name> <date> 199301 </date> <note> A nondestructive method
for determining the spring constant of cantilevers for scanning force
microscopy </note> <group> cantilever </group> <group1> parameters
</group1> <group2> </group2> <group3> </group3> </p><p> <name> Ford1993
</name> <date> 199301 </date> <note> Energy balance for a dissipative
system, jasnote - See also Senitzsky's critique, 1995 </note> <group>
system </group> <group1> dissipation </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Haase1993 </name> <date> 199301 </date> <note>
magnetization-prepared NMR spectroscopy, cited in, Nestle, Mechanically
detected NMR - spatial resolution of inductive NMR microscopy of non-solid
samples has become so high that diffusion effects start to limit the
spatial resolution. Typical diffusive displacement of molecules in free
water during a single NMR scan are on the order of 5um in 10ms or 50um in
1 s. Implies that mechanical detection may become the main method to study
spatial resolution </note> <group> nmr </group> <group1> magnetics
</group1> <group2> </group2> <group3> </group3> </p><p> <name> Hutter1993
</name> <date> 199301 </date> <note> calibration of AFM </note> <group>
afm </group> <group1> calibration </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Neto199303 </name> <date> 199303 </date> <note>
dissipative force on a sphere moving in vacuum - Casimir forces </note>
<group> Casimir </group> <group1> dissipation </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Neto199303 </name> <date> 199303
</date> <note> dissipative force on a sphere moving in vacuum using
Casimir force references </note> <group> casimir </group> <group1> force
</group1> <group2> </group2> <group3> </group3> </p><p> <name> Pace199304
</name> <date> 199304 </date> <note> quantum limits in interferometric
detection of gravitational radiation </note> <group> qm </group> <group1>
interferometry </group1> <group2> </group2> <group3> </group3> </p><p>
<name> Grivet199305 </name> <date> 199305 </date> <note> Simulation of
Magnetic Resonance Experiments </note> <group> resonance </group> <group1>
experiments </group1> <group2> </group2> <group3> </group3> </p><p>
<name> Mertz199305 </name> <date> 199305 </date> <note> A feedback
mechanism is used to control the forces incident on a mechanical
microcantilever as a function of the monitored cantilever motion. The
control is effected by modifying the intensity of an auxiliary laser beam
that generates a thermally induced stress. The feedback is designed to
reduce the effective resonance quality factor of the cantilever. The
resultant regulation of the cantilever motion is shown to improve the
measurement dynamics in atomic force microscopy, without signiticantly
degrading the signal to noise ratio. </note> <group> cantilever </group>
<group1> control </group1> <group2> </group2> <group3> </group3> </p><p>
<name> Lloyd199309 </name> <date> 199309 </date> <note> Science report, a
potential quantum computer explaining the basics of weakly coupled systems
probed by sequences of electromagnetic pulses of well-defined frequency
and length as the nature of a quantum computer </note> <group> qm </group>
<group1> computing </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Barrett1994 </name> <date> 199401 </date> <note> optical
pumping to improve nmr detection </note> <group> nmr </group> <group1>
optical pumping </group1> <group2> </group2> <group3> </group3> </p><p>
<name> Brandl1994 </name> <date> 199401 </date> <note> molecular diffusion
in nmr spectroscopy </note> <group> nmr </group> <group1> diffusion
</group1> <group2> </group2> <group3> </group3> </p><p> <name> Chen1994
</name> <date> 199401 </date> <note> A variational method is used to
calculate the deflection and the fundamental and harmonic resonance
frequencies of commercial V-shaped and rectangular atomic force microscopy
cantilevers. The effective mass of V shaped cantilevers is roughly half
that calculated for the equivalent rectangular cantilevers. Damping by
environmental gases, including air, nitrogen, argon, and helium, affects
the frequency of maximum response and to a much greater degree the quality
factor Q. Helium has the lowest viscosity, resulting in the highest Q, and
thus provides the best sensitivity in noncontact force microscopy. Damping
in liquids is dominated by an increase in effective mass of the cantilever
due to an added mass of the liquid being dragged with that cantilever.  
at DOE in oakridge </note> <group> cantilever </group> <group1> parameters
</group1> <group2> </group2> <group3> </group3> </p><p> <name> ChoY1994
</name> <date> 199401 </date> <note> crystal structure of a tumor </note>
<group> crystal </group> <group1> structure </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Hug1994 </name> <date> 199401 </date>
<note> with Guntherodt, MHz frequency in non-contact AFM detection </note>
<group> afm </group> <group1> detection </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Hutter1994 </name> <date> 199401
</date> <note> measurement of van der Waals with afm </note> <group> afm
</group> <group1> measurement </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Jacobsen1994 </name> <date> 199401 </date>
<note> Effect of a magnetic field on a vibrating reed with anisotropic
susceptibility, with Ehrlich at the NRL </note> <group> oscillator
</group> <group1> fields </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Robinson199401 </name> <date> 199401 </date> <note>
Science, UW, with Haas and Mailer, molecular dynamics in liquids,
spin-lattice relaxation of nitroxide spin labels </note> <group> spin
</group> <group1> relaxation </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Giessibl199402 </name> <date> 199402 </date>
<note> Piezoresistive cantilevers utilized for scanning tunneling and
scanning force microscope in ultrahigh vacuum </note> <group> afm </group>
<group1> vacuum </group1> <group2> Park Scientific Instruments </group2>
<group3> cited in Volodin200505 </group3> </p><p> <name> Mancini199405
</name> <date> 199405 </date> <note> quantum noise reduction by radiation
pressure - a linear Fabry-Perot cavity with an oscillating mirror used for
quantum noise reduction </note> <group> cavity </group> <group1> noise
</group1> <group2> </group2> <group3> </group3> </p><p> <name>
Lantz199407 </name> <date> 199407 </date> <note> Two ac techniques for
imaging under liquids using atomic force microscopy are investigated. In
the first method, the sample is oscillated with a sinusoidal displacement,
whereas in the second method, the cantilever is oscillated with a
sinusoidal magnetic force. Both techniques are successful for topographic
imaging under liquids with the tip in repulsive contact with the sample.
Of the two methods, the cantilever driven technique is found to be less
noisy. In addition to topographic imaging, noncontact magnetic force
imaging under liquid is demonstrated. </note> <group> afm </group>
<group1> imaging </group1> <group2> </group2> <group3> </group3> </p><p>
<name> Neumeister199408 </name> <date> 199408 </date> <note> rev sci inst
from santa barbara, lateral, normal, and longitudinal spring constants of
atomic force microscopy cantilevers </note> <group> cantilever </group>
<group1> measurement </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Babcock1994 </name> <date> 199411 </date> <note> IEEE
Trans Mag, early MFM article, study of thin film cantilever and tip
parameters </note> <group> MFM </group> <group1> tips </group1> <group2>
Digitl Instruments, Advanced Research Corporation </group2> <group3> with
Eilings </group3> </p><p> <name> Henderson1995 </name> <date> 199500
</date> <note> The potential and limitations of neutrons, electrons and
X-rays for atomic resolution microscopy of unstained biological molecules.
Quart. Rev. Biophys. 28, 171-193 (1995).  I don't have a copy of this
paper, but it is the one referenced as the review on limitations for high
energy spectroscopy that actually prevents the determination of structure
at atomic resolution in single biological molecules.  Henderson summarized
in 1995 that this would be true regardless of whether neutrons, electrons
or X-rays are used as the illumination. </note> <group> spectroscopy
</group> <group1> principles </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Ford1995 </name> <date> 199501 </date> <note> A
reply to criticism, Senitzky:95: ``This is a system wih an infinite number
of degrees of freedom, each with its corresponding zero-point oscillation.
At absolute zero, this system is in its ground state and, trivially, there
is no work done on or by the system. But, for any finite coupling,
/emph{no matter how weak}, $H_{/text{spin}}$ does not commute with $H$.
Therefore, the ground state of $H$ is not the ground state of
$H_{/text{spin}}$ and, even at absolute zero, the oscillator energy must
fluctuate.'' equation (14) --- Q is the Q of the oscillator
/begin{equation} /expect{H_/text{osc}} = /frac{/hbar /omega_0}{2} +
/frac{/hbar/omega_0}{/pi Q} /ln(/omega_c//omega_0) /end{equation}. Also,
jasnote2 = {A reply to Senitzsky's critique /cite{Senitzky:95}} </note>
<group> system </group> <group1> dissipation </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Gao1995 </name> <date> 199501 </date>
<note> good storyteller history on principle of least action and how that
relates to Feynman diagrams </note> <group> qm </group> <group1> history
</group1> <group2> </group2> <group3> </group3> </p><p> <name> Jacobs1995
</name> <date> 199501 </date> <note> Limit on the electric-dipole moment
of 199Hg using synchronous optical pumping, with Forston at the UW
regarding symmetry breaking and theoretical limits, jasnote Synchronously
driven optically pumped atomic oscillators have been used to measure the
electric-dipole moment of /sup 199/Hg as a test of time-reversal symmetry.
Our result, d(/sup 199/Hg) less than 8.7*10/sup -28/e cm, is the smallest
experimental limit on the size of an electric-dipole moment and sets
stringent bounds on several sources of time-reversal symmetry violation in
atomic systems. This article describes the details of the experimental
apparatus, the measurement procedure, and the implications of the result
for CP violation in elementary particle interactions </note> <group>
oscillator </group> <group1> theory </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Muzinich199501 </name> <date> 199501 </date>
<note> long range forces in quantum gravity </note> <group> qm </group>
<group1> gravity </group1> <group2> </group2> <group3> </group3> </p><p>
<name> Porter194501 </name> <date> 199501 </date> <note> web article from
the Rockefeller Foundation about the history of electron microscopy
</note> <group> microscopy </group> <group1> history </group1> <group2>
</group2> <group3> </group3> </p><p> <name> Kimmich199504 </name> <date>
199504 </date> <note> Spin-Lock Field-Cycling Imaging Relaxometry </note>
<group> spin </group> <group1> imaging </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Senitzky199505 </name> <date> 199505
</date> <note> comment on energy balance for a dissipative system wherein
the author analyzes a harmonic oscillator coupled to a loss mechanism and
shows how the qm formalism should be interpreted.  an explicit distinction
is made between thermal and zero-point fluctuations, and the physical
significance of the latter is discussed. </note> <group> dissipation
</group> <group1> oscillators </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Kohler199506 </name> <date> 199506 </date>
<note> Science article on single molecule electron paramagnetic resonance
spectroscopy: hyperfine splitting owing to a single nucleus </note>
<group> electron </group> <group1> resonance </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Sodickson199509 </name> <date> 199509
</date> <note> with Waugh, spin diffusion on a lattice: classical
simulations and spin coherent states </note> <group> spin </group>
<group1> diffusion </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Weiss199509 </name> <date> 199509 </date> <note> splitting
of high-Q modes induced by light backscattering in silica microspheres,
spherical dielectric resonators, shows doublet resonances, but I'm not
sure why I saved this one either </note> <group> light </group> <group1>
splitting </group1> <group2> Ecole Normale Superieure, Laboratoire
Kastler-Brassel </group2> <group3> </group3> </p><p> <name> Yukalov199510
</name> <date> 199510 </date> <note> origin of pure spin superradiance
</note> <group> qm </group> <group1> theory </group1> <group2> </group2>
<group3> cited in Bargatin and Roukes, only one laser-like device that
used an oscillator different from a field mode of an electromagnetic
cavity - the nuclear-magnetic-resonance (NMR) laser </group3> </p><p>
<name> Jenkins1995 </name> <date> 199512 </date> <note> Measurement of the
modal shapes of inhomogeneous cantilevers using optical beam deflection
</note> <group> cantilever </group> <group1> measurement </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Bergh1996 </name>
<date> 199601 </date> <note> We consider the effects of close coupling
between magnetic spin systems and oscillator detectors. The scaling of
present experiments using both mechanical and electrical oscillator
detectors for single-spin detection is examined.  We show how nonlinear
interactions ignored in previous descriptions may dominate the detector
response in single-spin schemes using mechanical detectors. From a
generalized form of the coupled Bloch equations, the difference between
mechanical and electrical oscillator detection can be readily appreciated.
Numerical solution of the coupled system using reasonable experimental
parameters shows that complex dynamics may be observed in the single-spin
detection scheme when the detector and the spin system are strongly
coupled. The interpretation of spin system data obtained from the motion
of a mechanical oscillator will require understanding of these detector
effects. </note> <group> oscillator </group> <group1> theory </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Bocko1996 </name>
<date> 199601 </date> <note> The present review summarizes the
experimental progress on quantum nondemolition measurements and the
classical models developed to describe and guide the development of
practical implementations of quantum nondemolition measurements.oscillator
measurements </note> <group> oscillator </group> <group1> measurements
</group1> <group2> </group2> <group3> </group3> </p><p> <name>
Landauer1996 </name> <date> 199601 </date> <note> from the IBM Watson
Center, Noise is of interest as a probe of carrier kinetics which is more
sensitive to the Pauli principle and to carrier interactions than the low
frequency conductance. We stress simple principles through cases which are
easily analyzed, to offset the tendency in the literature toward formal
analysis. </note> <group> noise </group> <group1> theory </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Rasmussen199601
</name> <date> 199601 </date> <note> making a machine instrumental: RCA
and the wartime origins of biological electron microscopy in america,
1940-1945 </note> <group> instrument </group> <group1> history </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Solimeno199106
</name> <date> 199601 </date> <note> Fabry-Perot resonators with
oscillating mirrors, this was an early article that John and Joe remember
reading without understanding, and then coming-back to it in the mid 90's
when MRFM was working and thinking, hey, they knew what they were talking
about </note> <group> oscillator </group> <group1> dynamics </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Nenonen199606
</name> <date> 199606 </date> <note> rev sci inst article on thermal noise
in biomagnetic measurements with SQUIDs </note> <group> squid </group>
<group1> measurement </group1> <group2> </group2> <group3> </group3>
</p>

<p> <name> Kinoshita199607 </name> <date> 199607 </date> <note> The
fine structure constant is one of the fundamental constants of nature
characterizing the whole range of physics including elementary particle,
atomic, mesoscopic and macroscopic systems. This diversity is reflected in
a large number of independent and competitive physical methods available
for measuring alpha. Included in this review are high precision
determinations of based on the measurements of the neutron de Broglie
wavelength, the quantum Hall effect, the ac Josephson effect, the electron
anomalous magnetic moment, and some simple QED bound systems. Also
discussed are new promising approaches based on atom beam interference and
single electron tunnelling. Possible implications to physics that might
arise from the comparison of alpha's obtained by these methods are
explored. </note> <group> qm </group> <group1> measurement </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Abramovici1996
</name> <date> 199608 </date> <note> LIGO, early article about cavity
interferometry and gravity wave detection </note> <group> LIGO </group>
<group1> history </group1> <group2> Caltech, LIGO </group2> <group3> with
Raab, Shoemaker, Whitcomb, Zucker </group3> </p><p> <name> Service199610
</name> <date> 199610 </date> <note> Science, atomic-scale images of the
receptor of a killer T cell detail how the immune protein recognizes
infected cells </note> <group> imaging </group> <group1> biology </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Bray1997 </name>
<date> 199701 </date> <note> reductionism for biochemists:how to survive
the protein wars </note> <group> biochem </group> <group1> philosophy
</group1> <group2> </group2> <group3> </group3> </p><p> <name> Chan1997
</name> <date> 199701 </date> <note> Core Structure of gp41 from the HIV
Envelope Glycoprotein </note> <group> biology </group> <group1> structure
</group1> <group2> </group2> <group3> </group3> </p><p> <name>
Gauthier1997 </name> <date> 199701 </date> <note> Scanning probe
microscopies need actuators to produce controlled displacements of
surfaces in the nanoscale range. Usually piezoelectric ceramics are used
for this function. In this article, we describe a magnetic way to produce
a similar movement without the use of high voltage. The position is
obtained with a precision lower than 10 pm in the range of a hundred
micrometers and a bandwidth of 1 kHz. All the parameters of this system
can be accurately and easily determined.  The knowledge of an analytical
form of the transient response of the actuator makes the calibration of
the position sensor needless. The direct measurement of the position of
the magnet gives entirely reliable results. This actuator could be, for
example, applied to atomic force microscopy where a good precision in
displacement is required to get force/distance curves or surface images.
</note> <group> piezo </group> <group1> positioner </group1> <group2>
</group2> <group3> </group3> </p><p> <name> Ghosh1997 </name> <date>
199701 </date> <note> The performance of a fiber-optic sensor and its
overall cost depend on the packaging of the sensor.  Alignment of
different optical, optoelectronic, and mechanical components is a key
problem in the package design of a fiber-optic sensor. An intensity based
fiber-optic sensor that can be used as a refractive-index or displacement
sensor is considered as a case study in analyzing the effects of alignment
on the performance of a fiber-optic sensor. Alignability of this sensor
package is defined and calculated, taking into account the coupling
efficiency and effects of various misalignments. Guidelines for making the
package so that the fiber-optic sensor works more efficiently are
developed from our calculations. </note> <group> optic </group> <group1>
sensors </group1> <group2> </group2> <group3> </group3> </p><p> <name>
Hansma1997 </name> <date> 199701 </date> <note> Properties of Biomolecules
Measured from Atomic Force Microscope Images: A Review </note> <group> afm
</group> <group1> review </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Martin199701 </name> <date> 199701 </date> <note> cell
aggregation and analysis for percent and size distribution in packing
theory </note> <group> sample </group> <group1> verification </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Sinno199701 </name>
<date> 199701 </date> <note> with Cochran, estimation with configurable
and constrained sensor systems, this includes the rule of thumb that more
data never hurts </note> <group> sensor </group> <group1> systems
</group1> <group2> </group2> <group3> </group3> </p>

<p> <name> Brun199703
</name> <date> 199703 </date> <note> quantum jumps as histories, Quantum
open systems are described in the Markovian limit by master equations in
Lindblad form.  I argue that common quantum jump techniques, which solve
the master equation by unraveling its evolution into stochastic
trajectories in Hilbert space, correspond closely to a particular set of
decoherent histories. This is illustrated by a simple model of a photon
counting experiment. </note> <group> qm </group> <group1> decoherence
</group1> <group2> University of London </group2> <group3> </group3>
</p><p> <name> Park199708 </name> <date> 199708 </date> <note> ultrahigh
strain and piezoelectric behavior in relaxor based ferroelectric single
crystals </note> <group> piezo </group> <group1> crystals </group1>
<group2> </group2> <group3> </group3> </p><p> <name> vanVeenendaal199808
</name> <date> 199708 </date> <note> frequency stepped adiabatic passage
excitation of half-integer quadrapolar spin systems </note> <group> spin
</group> <group1> systems </group1> <group2> University of Nijmegen
</group2> <group3> with Meier and Kentgens </group3> </p><p> <name>
Shor199710 </name> <date> 199710 </date> <note> Polynomial-time algorithms
for prime factorization and discrete logarithms on a quantum computer
</note> <group> qm </group> <group1> computer </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Blondel119711 </name> <date> 199711
</date> <note> SIAM J Control Optim, NP-hardness of some linear control
design problems </note> <group> control </group> <group1> complexity
</group1> <group2> University of Liege, MIT </group2> <group3> </group3>
</p><p> <name> Sandford199711 </name> <date> 199711 </date> <note> IEEE,
lase frequency control using an optical resonator locked to an electronic
oscillator </note> <group> oscillator </group> <group1> control </group1>
<group2> </group2> <group3> </group3> </p><p> <name> BrownSW1998 </name>
<date> 199801 </date> <note> NRL work Optical NMR from single quantum dots
</note> <group> nmr </group> <group1> dots </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Chang1998 </name> <date> 199801 </date>
<note> Displacement measurement by synthesized light source based on fiber
Bragg gratings </note> <group> interferometer </group> <group1>
measurement </group1> <group2> </group2> <group3> </group3> </p><p>
<name> Dowling1998 </name> <date> 199801 </date> <note> quantum computing
cast in terms of dorothy from oz with a nice little picture about all the
players </note> <group> qm </group> <group1> history </group1> <group2>
</group2> <group3> </group3> </p><p> <name> Forman1998 </name> <date>
199801 </date> <note> Atomichron: The Atomic Clock from Concept to
Commercial Product </note> <group> qm </group> <group1> history </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Geilke1998 </name>
<date> 199801 </date> <note> PhD thesis on mechanical detection of NMR. My
copy is in German, but the abstract translation is The probehead itself is
an all-in-one assembly and contains both the resonance circuit and the
components for tuning and matching to 50 Ohms impedance.  The magnet
systems is made of two permanent magnets (Nd-Fe-B alloy, high density of
magnetic energy). They are built in a homemade mechanic frame to adjust
the homogeneity of the external magnetic field. The magnetic field
achieved with this setup is 0.35T (according to 14.9Mhz proton resonance
frequency) with a homogeneity of about 30ppm.  We succesfully detected NMR
signals with this probe.  Uses a sample N,N Dimethylacetamid which might
be why I noticed this paper, and also has the routine collection of Sidles
and Rugar references </note> <group> mrfm </group> <group1> experiments
</group1> <group2> </group2> <group3> </group3> </p><p> <name>
Ilchenk1998 </name> <date> 199801 </date> <note> Strain-tunable high-Q
optical microsphere resonator </note> <group> optical </group> <group1>
resonators </group1> <group2> </group2> <group3> </group3> </p><p> <name>
Japan1998 </name> <date> 199801 </date> <note> In Japanese, with a
hand-written note that this article describes a way to make samples for
electron microscopy </note> <group> em </group> <group1> samples </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Lieber1998 </name>
<date> 199801 </date> <note> one-dimensional nanostructures in chemistry
and physics, and their applications </note> <group> nanowire </group>
<group1> structure </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Morales199801 </name> <date> 199801 </date> <note> Science
article, with Lieber, A Laser Ablation Method for the Synthesis
ofCrystalline Semiconductor Nanowires </note> <group> nanowire </group>
<group1> fabrication </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Quintanar199801 </name> <date> 199801 </date> <note>
preparation techniques and mechanisms of formation of biodegradable
nanoparticles from preformed polymers </note> <group> polymer </group>
<group1> sample </group1> <group2> </group2> <group3> </group3> </p><p>
<name> ZhangW199802 </name> <date> 199802 </date> <note> first direct
measurement of the spin diffusion rate in a homogenous solid </note>
<group> spin </group> <group1> diffusion </group1> <group2> MIT </group2>
<group3> </group3> </p><p> <name> Cleland199803 </name> <date> 199803
</date> <note> A nanometre-scale mechanical electrometer </note> <group>
electrometer </group> <group1> device </group1> <group2> UCSB, Caltech
</group2> <group3> with Roukes </group3> </p><p> <name> Kane199805
</name> <date> 199805 </date> <note> In Nature, A silicon-based nuclear
spin quantum computer - South Wales </note> <group> qm </group> <group1>
computing </group1> <group2> </group2> <group3> </group3> </p><p> <name>
Rajagopal199806 </name> <date> 199806 </date> <note> Sidles, principle of
detailed balance and the Lindblad dissipative quantum dynamics </note>
<group> qm </group> <group1> dissipation </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Jorritsma199807 </name> <date> 199807
</date> <note> another article on nanowires, this one on magnetic
properties, distributed by John on the event of Marohn's tenure </note>
<group> cantilever </group> <group1> properties </group1> <group2>
</group2> <group3> </group3> </p><p> <name> Khandelwal199807 </name>
<date> 199807 </date> <note> Optically Pumped Nuclear Magnetic Resonance
Measurements of the Electron Spin Polarization in GaAs Quantum Wells near
Landau Level Filling Factorn v = 1/3 </note> <group> nmr </group> <group1>
spin </group1> <group2> </group2> <group3> </group3> </p>

<p> <name>
Mabuchi199807 </name> <date> 199807 </date> <note> Standard quantum limits
for broadband position measurement, I utilize the Caves-Milburn model for
continuous position measurements to formulate a broadband version of the
standard quantum limit SQL for monitoring the position of a free mass and
illustrate the use of Kalman filtering to recover the SQL for estimating a
weak classical force that acts on a quantum mechanical test particle under
continuous observation. These derivations are intended to clarify the
interpretation of SQL's in the context of broadband quantum measurement,
with particular attention paid to the question of how it might be possible
to verify that a given laboratory measurement does indeed achieve
backaction-limited sensitivity. The method used to analyze force detection
may be extended to the case of weak classical forces with arbitrary time
dependence, including nonstationary and impulsive signals. </note> <group>
sql </group> <group1> measurement </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Rakhmanov199809 </name> <date> 199809 </date>
<note> LIGO, dynamics of Fabry-Perot resonators with suspended mirrors,
nonlinear coupled oscillators </note> <group> Fabry-Perot </group>
<group1> resonators </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Rowan199809 </name> <date> 199809 </date> <note> Scotland,
Ginzton lab, Mechanical losses associated with the technique of
hydroxide-catalysis bonding of fused silica.  This paper describes the
results of investigations into the mechanical losses associated with the
technique of hydroxide-catalysis bonding of fused silica and fused silica.
Our measurements suggest that this technique will be excellent for use in
constructing the all fused silica suspensions planned for the GE0 600
gravitational wave detector. </note> <group> gravity </group> <group1>
sensors </group1> <group2> </group2> <group3> </group3> </p><p> <name>
Tycko199811 </name> <date> 199811 </date> <note> optical pumping in indium
phosphide, nmr measurements and potential for signal enhancement in
biological solid state nmr </note> <group> nmr </group> <group1>
measurements </group1> <group2> NIDDK </group2> <group3> </group3>
</p><p> <name> Burkard1999 </name> <date> 199901 </date> <note> Coupled
quantum dots as quantum gates with DiVincenzo </note> <group> qm </group>
<group1> dots </group1> <group2> </group2> <group3> </group3> </p><p>
<name> de_Faria1999 </name> <date> 199901 </date> <note> Dissipative
dynamics of the Jaynes-Cummings model in the dispersive approximation:
Analytical results </note> <group> dissipation </group> <group1> models
</group1> <group2> </group2> <group3> </group3> </p><p> <name>
Deutsch1999 </name> <date> 199901 </date> <note> Quantum computation
explained with reversability and logic showing that you can have a result
that is real but proving such a result would take more computing time than
the universe allows </note> <group> qm </group> <group1> theory </group1>
<group2> </group2> <group3> </group3> </p>

<p> <name> Dorofeyev1999
</name> <date> 199901 </date> <note> The Brownian motion of a microscopic
solid under the action of fluctuating electromagnetic fields was detected
using atomic-force microscopy. The distance dependence of the noise
spectrum of free cantilever oscillations, of the resonance frequency, and
of the damping coefficient were investigated under ultrahigh vacuum
conditions. An analytic expression for the damping coefficient of a
metallic tip-sample system was obtained on the basis of fluctuating
electrodynamics. Our calculation is in good agreement with experimental
data. </note> <group> afm </group> <group1> noise </group1> <group2>
</group2> <group3> </group3> </p>

<p> <name> Fuchs1999 </name> <date>
199901 </date> <note> EPR dissertation measuring DPPH </note> <group> esr
</group> <group1> measurement </group1> <group2> </group2> <group3>
</group3> </p>
<p> <name> Gauthier1999 </name> <date> 199901 </date>
<note> Classical atomic force microscopes use a soft cantilever spring to
convert the interaction between a tip and a surface into a displacement.
This leads to indirect force measurement and instability in the case of
attractive forces.  We have developed a new kind of force sensor to
overcome these limitations. The principle is to place a tip glued on a
small magnet in levitation in a magnetic field. A servo-loop ensures the
stability of the equilibrium in the vertical direction and allows the
measurement of forces. It is monitored by an optical sensor that measures
continuously the actual position of the tip with a sensitivity of 10 pm.
With such a device it is possible to obtain the van der Waals attraction
up to the molecular contact without jump. A digital signal processing
board stops the approach of the tip just before contact to prevent any
deterioration of the surface during the measurement. This allows images of
soft and brittle surfaces, such as a micro-filtration membrane. </note>
<group> cantilever </group> <group1> tips </group1> <group2> </group2>
<group3> </group3> </p>

<p> <name> Genolet1999 </name> <date> 199901
</date> <note> with Vettiger at IBM, and someone at Novartis, A new probe
made entirely of plastic material has been developed for scanning probe
microscopy. Using a polymer for the cantilever facilitates the realization
of mechanical properties that are difficult to achieve with classical
silicon technology. The new cantilever and tip presented here are made of
an epoxy-based photoplastic. The fabrication process is a simple batch
process in which the integrated tip and the lever are defined in one
photolithography step. The simplicity of the fabrication step, the use of
a polymer as material, and the ability to reuse the silicon mold lead to a
soft low-cost probe for scanning force microscopy. Imaging soft condensed
matter with photoplastic levers, which uses laser beam deflection sensing,
exhibits a resolution that compares well with that of commercially
available silicon cantilevers. </note> <group> cantilever </group>
<group1> fabrication </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Holden1999 </name> <date> 199901 </date> <note> Eight
attributes of highly successful posdocs Science article with career advice
</note> <group> career </group> <group1> advice </group1> <group2>
</group2> <group3> </group3> </p><p> <name> Imry1999 </name> <date>
199901 </date> <note> with Landauer at the IBM Watson Center, Electric
current flow, in transport theory, has usually been viewed as the response
to an applied electric field. Alternatively, current flow can be viewed as
a consequence of the injection of carriers at contacts and their
probability of reaching the other end. This approach has proven to be
particularly useful for the small samples made by modern microelectronic
techniques. The approach, some of its results, and related issues are
described, but without an attempt to cover all the active subtopics in
this field. </note> <group> electron </group> <group1> theory </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Jakeman1999 </name>
<date> 199901 </date> <note> Statistics of a telegraph signal, Equations
are derived which describe the time evolution of the probability density
and corresponding characteristic function of a telegraph signal which has
passed through a detuned Lorentzian filter. A closed form expression for
the characteristic function is obtained for the tuned case and the
predicted joint statistics and correlation properties are reviewed in the
context of earlier results. Low order correlation properties for the more
general detuned case are calculated. It is shown that the stationary
single interval statistics can be generated by a random phasor moving in a
space of fractional dimensions and that a simple transform of variable
leads to distributions which are stable in this space. </note> <group> qm
</group> <group1> signals </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Ludmerer1999 </name> <date> 199901 </date> <note> JASnote
says, "Doug: Read this!  Best exposition on medical economics I have read
...JAS"  </note> <group> medical </group> <group1> economics </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Porzio199901 </name>
<date> 199901 </date> <note> LIGO article, Position msmt of a suspended
cavity mirror undergoing brownian motion, with Solimeno </note> <group>
cavity </group> <group1> randomness </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Rugar_friction199996 </name> <date> 199906
</date> <note> Rugar, fax cover sheet by Dan to John about "some
interesting papers... The sliding/parallel motion geometry is relevant to
our IBM experiment.  These papers seem to predict much smaller dissipation
than your paper on Casimir force fluctuations.  Hope all is going well.  
Do you read e-mail now?  Best regards, Dan" </note> <group> friction
</group> <group1> dissipation </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Biermann199908 </name> <date> 199908 </date>
<note> MIT Press, Great Ideas in Computer Science, A Gentle Introduciton,
John added, systems engineering job descriptions and project management
philosophy </note> <group> engineering </group> <group1> philosophy
</group1> <group2> </group2> <group3> </group3> </p><p> <name>
Lloyd199908 </name> <date> 199908 </date> <note> obituary for Landauer, It
is well known that scientific progress requires intellect. Less advertised
is science's need for conscience. Intellect creates new ideas; conscience
examines them for consistency and correctness. In other words, a
scientific field requires not only head but heart as well. Rolf
Landauer was both head and heart to the field of physics of information.
He died of cancer on 27 April this year at the age of 72. Landauer based
his research on a simple rule: information is physical. That is,
information is registered by physical systems such as strands of DNA,
neurons and transistors; in turn, the ways in which systems such as cells,
brains and computers can process information is governed by the laws of
physics. </note> <group> information </group> <group1> history </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Peil199908 </name>
<date> 199908 </date> <note> observing the quantum limit of an electron
cycoltron: QND measurements of quantum jumps between Fock states </note>
<group> qm </group> <group1> observation </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Picinboo199911 </name> <date> 199911
</date> <note> IEEE, Polyspectra are related to Fourier transforms of
moment or cumulant functions of any order of random signals. They play an
important role in many problems of signal analysis and processing.
However, there are only a few statistical models giving explicitly the
expression of polyspectra. Ordered signals are signals for which the
explicit expression of the moment functions requires that the time
instants appearing in these moments are put in an increasing order. There
are many examples of such signals, the best known being the random
telegraph signal constructed from a Poisson process. Some of these
examples are presented and analyzed. The origin of the ordering structure
is related with the point that real time is an oriented variable making a
difference between past and future. This especially appears in Markov
processes. The calculation of polyspectra is difficult because ordering is
not adapted to Fourier analysis. By an appropriate grouping of various
terms, the explicit expression of spectral moment functions is obtained.
It shows in particular that many ordered signals present a normal density
on the normal manifolds of the frequency domain and another contribution
on the stationary manifold that is explicitly calculated. The analysis of
the structure of this expression allows us to discuss some relationships
with normal distribution, central limit theorem, and time reversibility.  
</note> <group> information </group> <group1> theory </group1> <group2>
</group2> <group3> </group3> </p><p> <name> SaintJean199911 </name>
<date> 199911 </date> <note> van der Waals and capacitive forces in atomic
force microscopies </note> <group> van der Waals </group> <group1> afm
</group1> <group2> </group2> <group3> </group3> </p><p> <name>
Yannoni199911 </name> <date> 199911 </date> <note> nuclear magnetic
resonance quantum computing using liquid crystal solvents </note> <group>
nmr </group> <group1> computing </group1> <group2> IBM Almaden </group2>
<group3> with Chuang, and Vandersypen </group3> </p><p> <name> Ohno199912
</name> <date> 199912 </date> <note> with Awschalom, Nature article on
electrical spin injection in a ferromagnetic semiconductor heterostructure
</note> <group> spin </group> <group1> injection </group1> <group2>
</group2> <group3> </group3> </p><p> <name> Ozcelik200000 </name> <date>
200000 </date> <note> from a lecture series at Ohio State University, this
is a short article on the effects of light and oxygen on the stability of
DPPH in acetone and soybean oil </note> <group> DPPH </group> <group1>
chemistry </group1> <group2> </group2> <group3> </group3> </p><p> <name>
Garcia200005 </name> <date> 200001 </date> <note> We discuss the stability
of the tip motion in dynamic atomic force microscopy. A nonlinear dynamics
analysis shows that the tip's phase space is divided in two basins of
attraction. A phase space diagram dominated by either basin of attraction
implies a stable motion while a substantial contribution from both basins
is associated with instabilities. Because the dominance of a given basin
of attraction depends on the tip surface interaction potential and
separation, stable and unstable motions are intrinsic features of an
oscillating tip near or in intermittent contact with a surface. </note>
<group> afm </group> <group1> oscillators </group1> <group2> </group2>
<group3> </group3> </p><p> <name> GPS_History </name> <date> 200001
</date> <note> This appendix provides an overview of the programmatic and
institutional evolution of the Global Positioning System (GPS), including
a history of its growing use in the military and civilian world, a
chronology of important events in its development, and a summary of its
costs to the government. </note> <group> technology </group> <group1>
history </group1> <group2> </group2> <group3> </group3> </p><p> <name>
Hornmark2000 </name> <date> 200001 </date> <note> New features of
electrically detected magnetic resonance in silicon p-n diodes </note>
<group> nmr </group> <group1> sample </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Ihde2000 </name> <date> 200001 </date> <note>
Nature millenium essay, Putting technology in its place, Why don't
Europeans carry Mayan calendar calculators in their Filofaxes? </note>
<group> technology </group> <group1> theory </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Kane20010 </name> <date> 200001 </date>
<note> Phys Review, Single-spin measurement using single-electron
transistors to probe two-electron systems, with Milburn </note> <group>
spin </group> <group1> measurement </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Nishizawa200001 </name> <date> 200001 </date>
<note> non-reductive scavenging of 1,1-Diphenyl-2picrylhydrazyl (DPPH) by
Peroxyradial - a useful method for quantitative analysis of peroxyradical
</note> <group> dpph </group> <group1> sample </group1> <group2> Tohoku
University, New Industry Creation Hatchery Center </group2> <group3>
</group3> </p><p> <name> Pike200001 </name> <date> 200001 </date> <note>
Bell Labs essay on Systems Software is Irrelevant </note> <group> computer
</group> <group1> theory </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Sato200001 </name> <date> 200001 </date> <note>
development and evaluation of an electrically detected magnetic resonance
spectrometer operating at 900 MHz </note> <group> resonance </group>
<group1> frequency </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Lifshitz200002 </name> <date> 200002 </date> <note> with
Roukes, The importance of thermoelastic damping as a fundamental
dissipation mechanism for small-scale mechanical resonators is evaluated
in light of recent efforts to design high-Q micrometer- and nanometer
scale electromechanical systems. The equations of linear thermoelasticity
are used to give a simple derivation for thermoelastic damping of small
flexural vibrations in thin beams. It is shown that Zener's well-known
approximation by a Lorentzian with a single thermal relaxation time
slightly deviates from the exact expression. </note> <group> cantilever
</group> <group1> dissipation </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Ried200003 </name> <date> 200003 </date> <note>
with Rugar and Mamin, Air-Bearing sliders and plane-plane concave tips for
atomic force microscope cantilevers </note> <group> cantilever </group>
<group1> tips </group1> <group2> </group2> <group3> </group3> </p><p>
<name> Aebersold2000 </name> <date> 200004 </date> <note> Nature article
that was the first presentation of Leroy Hood's systems biology - notable
because he sold the idea even though this article slights the efforts of
every player - sponsors, business, academia, and investigators </note>
<group> biology </group> <group1> systems </group1> <group2> University of
Washington, ISB </group2> <group3> with Hood </group3> </p><p> <name>
Carlson200006 </name> <date> 200006 </date> <note> cited in Mamin article,
US Patent #6,081,119, Techniques of combining separate but correlated
measurements to form a second-order or higher order correlation function
to suppress the effects of noise in the initial condition of a system
capable of retaining memory of an initial state of the system with a
characteristic relaxation time. At least two separate measurements are
obtained from the system. The temporal separation between the two separate
measurements is preferably comparable to or less than the characteristic
relaxation time and is adjusted to allow for a correlation between two
measurements. </note> <group> relaxation </group> <group1> measurements
</group1> <group2> </group2> <group3> </group3> </p><p> <name>
Kofman200006 </name> <date> 200006 </date> <note> decay in qm measurments
</note> <group> qm </group> <group1> measurement </group1> <group2>
</group2> <group3> </group3> </p><p> <name> Wind200006 </name> <date>
200006 </date> <note> an integrated confocal and magnetic resonance
microscope for cellular research, this is the PNNL effort that possibly
overlapped MRFM during Miqin Zhang's proposal for a nano-center, but
collaboration failed and we proposed our own center without result </note>
<group> resonance </group> <group1> microscope </group1> <group2> PNNL
</group2> <group3> </group3> </p><p> <name> Rast20007 </name> <date>
200007 </date> <note> Rev Sci Inst, 71, 7, Dynamics of damped cantilevers
</note> <group> cantilever </group> <group1> models </group1> <group2>
Institut fur Physik Klingelbergstrasse </group2> <group3> references
Sidles </group3> </p><p> <name> Nunez200008 </name> <date> 200008 </date>
<note> mathematical nature in cognitive science for set theory and human
meaning </note> <group> math </group> <group1> philosophy </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Schindler200008
</name> <date> 200008 </date> <note> with Raab, optimal sensitivity for
molecular recognition MAC-mode AFM </note> <group> AFM </group> <group1>
mrfm </group1> <group2> </group2> <group3> </group3> </p><p> <name>
Prater20009 </name> <date> 200009 </date> <note> memo to White Paper
authors on MURI topic Dynamic Behavior of Interactive Spin-Based Systems
with rejection and brief critique of the Sidles proposal Molecular
Observation as a National Research Initiative </note> <group> sponsor
</group> <group1> history </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Saibil200009 </name> <date> 200009 </date> <note> Nature,
Review, Conformational changes studied by cryo-electron microscopy </note>
<group> cryo </group> <group1> structure </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Puglisi200010 </name> <date> 200010
</date> <note> Nature review, translation at atomic resolution focusing on
structures of 50S and 30S ribosomal particles solved by x-ray diffraction
with folding patterns discussed </note> <group> protein </group> <group1>
structure </group1> <group2> </group2> <group3> </group3> </p><p> <name>
Picinbono200011 </name> <date> 200011 </date> <note> IEEE, moments and
polyspectra of the discrete-time random telegraph signal </note> <group>
statistical </group> <group1> theory </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Karki200012 </name> <date> 200012 </date> <note>
Oxidation of reductase inhibitors by DPPH </note> <group> DPPH </group>
<group1> stability </group1> <group2> Merck Research Laboratories
</group2> <group3> </group3> </p><p> <name> Volodin200012 </name> <date>
200012 </date> <note> low temperature magnetic force microscopy with
enhanced sensitivity based on piezoresistive detection </note> <group> mfm
</group> <group1> piezos </group1> <group2> Universiteit Leuven </group2>
<group3> </group3> </p><p> <name> Bennink2001 </name> <date> 200101
</date> <note> optical tweezers on individual nucleosomes </note> <group>
instruments </group> <group1> tweezers </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Bhawal2001 </name> <date> 200101
</date> <note> e2e reference document </note> <group> LIGO </group>
<group1> modeling </group1> <group2> </group2> <group3> </group3> </p><p>
<name> Buonanno2001a </name> <date> 200101 </date> <note> Optical noise
correlations and beating the standard quantum limit in advanced
gravitational-wave detectors with Chen </note> <group> LIGO </group>
<group1> noise </group1> <group2> </group2> <group3> </group3> </p><p>
<name> Buonanno2001b </name> <date> 200101 </date> <note> Quantum noise in
second generation, signal-recycled laser interferometric
gravitational-wave detectors </note> <group> LIGO </group> <group1> noise
</group1> <group2> </group2> <group3> </group3> </p><p> <name> Casti2001
</name> <date> 200101 </date> <note> Mathematical theorems can be created
by formalization of everyday expressions.  Nice editorial on Goedel's
process toward the incompleteness theorem </note> <group> math </group>
<group1> philosophy </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Cleland2001 </name> <date> 200101 </date> <note>
Foundations of Nanomechanics.  From Solid-State Theory to Device
Applications </note> <group> nano </group> <group1> review </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Cochran2001 </name>
<date> 200101 </date> <note> slide presentation on Signal Processing and
Control Challenges in MOSAIC </note> <group> signal </group> <group1>
control </group1> <group2> </group2> <group3> </group3> </p><p> <name>
Croft2001 </name> <date> 200101 </date> <note> Creep, Hysteresis, and
Vibration Compensation for Piezoactuators: Atomic Force Microscopy
Application </note> <group> piezo </group> <group1> control </group1>
<group2> </group2> <group3> </group3> </p><p> <name>
DARPA_Biomagnetics2001 </name> <date> 200101 </date> <note> High
Sensitivity Magnetic Sensors for Biotechnology </note> <group> magnetic
</group> <group1> biotech </group1> <group2> </group2> <group3> </group3>
</p><p> <name> DiVincenzo2001 </name> <date> 200101 </date> <note> Review
article with commentary on the current study approaches </note> <group> qm
</group> <group1> dogma </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Engel2001 </name> <date> 200101 </date> <note> Basel group
doing ESR and spin detection for quantum spintronics </note> <group> esr
</group> <group1> detection </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Fredkin2001 </name> <date> 200101 </date> <note>
Brownian motion on manifolds, with application to thermal magnetization
reversal </note> <group> thermal </group> <group1> noise </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Higuchi2001 </name>
<date> 200101 </date> <note> letter from JEOL management about sample
preparation after I asked Yoshinari if JEOL might do some SEM and TEM
characterizations for us </note> <group> sample </group> <group1>
preparation </group1> <group2> </group2> <group3> </group3> </p>
<p>
<name> Hilgendorff2001 </name> <date> 200101 </date> <note> Using
monodisperse nanocrystalline cobalt (Co) particles in non-polar colloidal
dispersions, large areas of symmetric multi-dimensional structures were
created using magnetophoretic deposition (MPD). To overcome the van der
Waals and magnetic dipole-dipole interactions, the particles were
stabilized with hydrophobic amines, phosphines, carboxylates and/or
polymers. Depending on the preparation parameters, our particles had
either bcc or E-Co crystalline structures. Using MPD with magnetic fields
up to 1 T, it was possible to create two-dimensional (2-D) arrays of
near-perfect symmetry up to 1 um^2 in size on various substrates, e.g.
carbon-coated copper grids, silicon, or glass. Growth of the 2-D crystal
was shown to be dependent on the direction of the applied external
magnetic field. Three-dimensional (3-D) crystals could be created by
increasing the magnetic field strength up to 6 T. </note> <group> crystal
</group> <group1> structure </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Jedema2001 </name> <date> 200101 </date> <note>
Finding a means to generate, control and use spin-polarized currents
represents an important challenge for spin-based electronics, or
'spintronics'. Spin currents and the associated phenomenon of spin
accumulation can be realized by driving a current from a ferromagnetic
electrode into a non-magnetic metal or semiconductor. This was first
demonstrated over 15 years ago in a spin injection experiment4 on a single
crystal aluminium bar at temperatures below 77 K. Recent experiments5+-8
have demonstrated successful optical detection of spin injection in
semiconductors, using either optical injection by circularly polarized
light or electrical injection from a magnetic semiconductor.However, it
has not been possible to achieve fully electrical spin injection and
detection at room temperature. Here we report room-temperature electrical
injection and detection of spin currents and observe spin accumulation in
an all-metal lateral mesoscopic spin valve, where ferromagnetic electrodes
are used to drive a spin-polarized current into crossed copper strips. We
anticipate that larger signals should be obtainable by optimizing the
choice of materials and device geometry. </note> <group> spin </group>
<group1> injection </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Ovchinnikov200101 </name> <date> 200101 </date> <note>
with S. A. Wolf from the NRL (I think Stu) this is an example of our
sponsor's research interest in superconductor properties, High-Tc oxides
are intrinsically inhomogeneous materials. The density of states is
evaluated for such an inhomogeneous system, and it displays a gap
structure above Tc res pseudogap. Thus, the pseudogap phenomenon can be
caused by an inhomogeneity of the metallic phase. As a result, the
critical temperature is spatially dependent. Various types of nonuniform
structure are described inhomogeneous carrier distribution, nonuniform
distribution of pair breakers!. The transition to a dissipationless state
(R=0) corresponds to the percolation threshold. </note> <group>
superconductor </group> <group1> phenomenon </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Mehta200104 </name> <date> 200104
</date> <note> from Photonics Research Group in Japan, wavelength tuning
in GaAs InGaAsP quantum well lasers </note> <group> gaas </group> <group1>
tuning </group1> <group2> </group2> <group3> </group3> </p><p> <name>
Lattman200106 </name> <date> 200106 </date> <note> PNAS, validate a method
of three-dimensional structure determination for individual biological
macromolecules.  femtosecond (fsec) x-ray pulses generated by free
electron, laser-based x-ray sources will allow the two-dimensional (2D)
diffraction patterns (DPs) of individual molecules to be recorded.  
Appropriate registration and averaging of these patterns will allow the
full three-dimensional DP of the molecule to be assembled into an
effectively continuous function. </note> <group> xray </group> <group1>
structure </group1> <group2> </group2> <group3> </group3> </p><p> <name>
Malajovish200106 </name> <date> 200106 </date> <note> with Awschalom, Here
we report a `persistent' spin-conduction mode in biased semiconductor
heterostructures, in which the sourcing of coherent spin transfer lasts at
least 1-2 orders of magnitude longer than in unbiased structures. We use
time-resolved Kerr spectroscopy to distinguish several parallel channels
of interlayer spin-coherent injection. The relative increase in
spin-coherent injection is up to 500 percent in the biased structures, and
up to 4,000 percent when p-n junctions are used to impose a built-in bias.
</note> <group> spin </group> <group1> injection </group1> <group2>
</group2> <group3> </group3> </p><p> <name> Tamayo200107 </name> <date>
200107 </date> <note> high-Q dynamic force microscopy in liquid and its
application to living cells, includes feedback control and cites Bruland
and Garbini article </note> <group> cantilever </group> <group1> control
</group1> <group2> </group2> <group3> references Bruland and Garbini
</group3> </p><p> <name> Rorty200109 </name> <date> 200109 </date> <note>
Science, history of science, studied ambiguity about books that promote
discussion in their discipline by being purposefully ambiguous, like
Schrodinger's work, and EO Wilson </note> <group> science </group>
<group1> history </group1> <group2> </group2> <group3> </group3> </p><p>
<name> Khalili200110 </name> <date> 200110 </date> <note>
Frequency-dependent rigidity in large-scale interferometric
gravitational-wave detectors </note> <group> interferometer </group>
<group1> frequency </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Sato200110 </name> <date> 200110 </date> <note> imaging of
electrically detected magnetic resonance of a silicon wafer </note>
<group> resonance </group> <group1> imaging </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Wolf200111 </name> <date> 200111
</date> <note> Science review, spintronics. a spin-based electronics
vision for the future, this was Wolf's introduction to a Science special
issue on spintronics with Awschalom, Daughton, Roukes, Chtchelkanova, and
Treger </note> <group> spintronics </group> <group1> history </group1>
<group2> unknown </group2> <group3> </group3> </p><p> <name>
DasSarma200112 </name> <date> 200112 </date> <note> spin electronics and
spin computation </note> <group> spin </group> <group1> spintronics
</group1> <group2> </group2> <group3> </group3> </p><p> <name>
Oskin200112 </name> <date> 200112 </date> <note> lecture notes on Nielsen
and Chuang's book Quantum Computation and Quantum information </note>
<group> qm </group> <group1> computing </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Adami2002 </name> <date> 200201 </date>
<note> author, quantum computation explained by algorithms and error
correction - John thought I would enjoy some feature of the foundational
explanation </note> <group> qm </group> <group1> theory </group1> <group2>
Caltech </group2> <group3> </group3> </p><p> <name> Augustine2002 </name>
<date> 200201 </date> <note> Prog Nuc Mag Res Spec, Transient properties
of radiation damping </note> <group> RF </group> <group1> damping
</group1> <group2> UC Davis </group2> <group3> </group3> </p><p> <name>
Barish2002 </name> <date> 200201 </date> <note> LIGO overview </note>
<group> LIGO </group> <group1> review </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Branca2002 </name> <date> 200201
</date> <note> UWEB industry model </note> <group> industry </group>
<group1> model </group1> <group2> </group2> <group3> </group3> </p><p>
<name> Buks2002 </name> <date> 200201 </date> <note> casimir force with
roukes </note> <group> casimir </group> <group1> force </group1> <group2>
</group2> <group3> </group3> </p><p> <name> Buonanno2002 </name> <date>
200201 </date> <note> We investigate the problem of detecting
gravitational waves from binaries of nonspinning black holes with masses m
= 5-20M, moving on quasicircular orbits, which are arguably the most
promising sources for first-generation ground-based detectors. We analyze
and compare all the currently available post-Newtonian approximations for
the relativistic two-body dynamics; for these binaries, different
approximations predict different waveforms. </note> <group> LIGO
</group> <group1> optics </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Caves200206 </name> <date> 200201 </date> <note> email to
Fuchs and Renes about Completely positive maps, positive maps, and the
Lindblad form </note> <group> qm </group> <group1> models </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Cleland2002 </name>
<date> 200201 </date> <note> with Roukes, Noise processes in
nanomechanical resonators </note> <group> noise </group> <group1>
oscillators </group1> <group2> </group2> <group3> </group3> </p><p>
<name> Cleland2002a </name> <date> 200201 </date> <note> Nanomechanical
displacement sensing using a quantum point contact </note> <group> nano
</group> <group1> read out </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Coombs2002 </name> <date> 200201 </date> <note> A New
Industrial Ecology - essay on examples of new relationships between
industry and universities - like short term contracts, big centers, or
specialized people </note> <group> industry </group> <group1> opinion
</group1> <group2> </group2> <group3> </group3> </p><p> <name>
Davidson2002 </name> <date> 200201 </date> <note> Synaptic Substrates of
the Implicit and Explicit Self </note> <group> biology </group> <group1>
philosophy </group1> <group2> </group2> <group3> </group3> </p><p> <name>
Dyson2002 </name> <date> 200201 </date> <note> In Praise of Amateurs, NYT
interview where he mentions John and MRF as one of the more exciting
possibilities in science and technology </note> <group> mrfm </group>
<group1> history </group1> <group2> </group2> <group3> </group3> </p><p>
<name> Epstein2002 </name> <date> 200201 </date> <note> JAMA article for
MD's on assessing professional competence </note> <group> medicine
</group> <group1> measurement </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Fisher2002 </name> <date> 200201 </date> <note>
Lower limit on decoherence induced by entangling two spatially-separated
qubits, jasnote - found magnetic thermal noise indiced flips at a distance
of 27 microns at room temperature </note> <group> thermal </group>
<group1> noise </group1> <group2> </group2> <group3> </group3> </p><p>
<name> Gottfried2002 </name> <date> 200201 </date> <note> Nature concept
article about truth and beauty where it is claimed that Dirac had
insightful knowledge about anti-particles despite any evidence other than
elegance in equations </note> <group> qm </group> <group1> history
</group1> <group2> </group2> <group3> </group3> </p><p> <name>
Knapp200201 </name> <date> 200201 </date> <note> The zoology created by
our imagination is far outstripped by that of reality. </note> <group>
bizarre </group> <group1> zoology </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Oskin200201 </name> <date> 200201 </date> <note>
with Chuang, trade article saying that, Quantum computation has advanced
to the point where system-level solutions can help close the gap between
emerging quantum technologies and real-world computing requirements.
</note> <group> qm </group> <group1> computing </group1> <group2>
</group2> <group3> </group3> </p><p> <name> Rugar_contract200201 </name>
<date> 200201 </date> <note> Rugar, email, Dear MOSAIC Team status of the
contract </note> <group> MOSAIC </group> <group1> history </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Signaling2002
</name> <date> 200201 </date> <note> The Alliance for Cellular Signaling
is exploring new frontiers, both infundamental scientific terms and in the
way in which research in cell biology is conducted. Alison Abbott reports.
</note> <group> cell </group> <group1> signaling </group1> <group2>
</group2> <group3> </group3> </p><p> <name> Smetacek200201 </name> <date>
200201 </date> <note> Nature, concepts, mind-grasping gravity about
balance and mental sensory development </note> <group> sensor </group>
<group1> philosophy </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Zurek2002 </name> <date> 200201 </date> <note> Rich review
work on the nature of QM theory.  Follows-up on developments since a prior
review in 1991.  Modifies the Quantum/Classical border of Bohr with
decoherence in von Neumann's computational information processing
p-reduced that adds a classical probability densitry matrix to the quantum
p-complete. Uses the System + Detector + Entropy (H) in the Bohm fashion
that suggests an environment constantly measuring itself.  Has a nice
picture of QM in chaos, and a "predicatbility sieve" for an Harmonic
Oscillator (cites Caves), and ends with an Existential Interpretationn
that would have been more clear to say, "Not whether this or that exists,
but this or that has what quality?"  </note> <group> qm </group> <group1>
review </group1> <group2> </group2> <group3> </group3> </p><p> <name>
Varadan200202 </name> <date> 200202 </date> <note> electrical and
communications systems programs and research opportunities, power point
presentation by the NSF director of ECS </note> <group> nsf </group>
<group1> programs </group1> <group2> NSF </group2> <group3> </group3>
</p><p> <name> Koshland200203 </name> <date> 200203 </date> <note>
Science perspective, Seven Pillars of Life discusses the definition and
classification of life with attendant complexities and contradictions
</note> <group> biology </group> <group1> classification </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Marburger200203
</name> <date> 200203 </date> <note> National Museum of Natural History of
the Smithsonian Institution, symposium on the Copenhagen Interpretation of
QM, about Michael Frayn's play about Bohr and Heisenberg </note> <group>
qm </group> <group1> philosophy </group1> <group2> Office of Science and
Technology Policy </group2> <group3> </group3> </p><p> <name>
Schnitzer200204 </name> <date> 200204 </date> <note> Nature, amazing
algorithms, compares studying algorithms used by systems that exhibit
computational behaviour, or deducing algorithms used by the brain with
studying receptors and transmitters like the difference between studying
hardware and software </note> <group> biological </group> <group1>
computation </group1> <group2> </group2> <group3> </group3> </p><p>
<name> Matone200205 </name> <date> 200205 </date> <note> LIGO
presentation, Absolute Calibration of IFO Control Signals. A comparison of
two simple DC calibration methods of IFO control signals </note> <group>
interferometry </group> <group1> control </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Kawakatsu200206 </name> <date> 200206
</date> <note> An atomic force microscope for nanocantilevers measuring
from a few 100 nm to a few mm in length was implemented. The natural
frequencies of the nanocantilevers lie in the range of 1 MHz to 1 GHz, and
optical detection schemes adapted to their size and frequency range was
selected. A helium neon laser with a beat frequency of 890 MHz was used as
the laser source. The beat was shifted to 1090 MHz by an
acousto-optical-modulator, and used as the carrier for heterodyne laser
Doppler measurement. This enabled velocity measurement up to around 100
MHz. The probe beam of the Doppler interferometer was guided to the
nanocantilever by a single mode polarization-maintaining optical fiber
terminated by a collimating lens, a quarter wave plate, and a focusing
lens. Reflected light was collected by the same optics and mixed with the
reference beam.  Self-excitation of the nanocantilever at its lowest
natural frequency was implemented for an amplitude of 1 nmp-p at 36 MHz.
The Q factor of the cantilever was 8000.  Noise effective amplitude of the
Doppler interferometer was smaller than 10 pmp-p above 10 MHz. Frequency
detection was possible for a nanowire measuring 100 nm in width. </note>
<group> afm </group> <group1> cantilevers </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Ruskov200206 </name> <date> 200206
</date> <note> Phys Rev B, We have studied theoretically the basic
operation of a quantum feedback loop designed to maintain a desired phase
of quantum coherent oscillations in a single solid-state qubit. The degree
of oscillations synchronization with external harmonic signal is
calculated as a function of feedback strength, taking into account
available bandwidth and coupling to environment. The feedback can
efficiently suppress the dephasing of oscillations if the qubit coupling
to the detector is stronger than the coupling to the environment. </note>
<group> qm </group> <group1> control </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Spehner200207 </name> <date> 200207 </date>
<note> quantum jump dynamics in cavity QED </note> <group> qm </group>
<group1> jumps </group1> <group2> </group2> <group3> </group3> </p><p>
<name> Beylkin200208 </name> <date> 200208 </date> <note> Numerical
operator calculus in higher dimensions, this is the article that John
found 200506 during the final days of preparing the NIH competing renewal.  
In it he found proof for the idea he was trying to sell to Bruce Robinson,
and John was quite glad that someone else had already thought-through this
idea which allowed him to cite previous proofs as a kind-of middle manager
</note> <group> qm </group> <group1> theory </group1> <group2> University
of Colorado, Boulder </group2> <group3> with Mohlenkamp </group3> </p><p>
<name> Knobel200209 </name> <date> 200209 </date> <note> with Cleland, We
propose a displacement sensing scheme for rf mechanical resonators made
from GaAs, based on detecting the piezoelectrically induced charge. By
using a single-electron transistor to detect the charge, we calculate that
a significantly higher displacement sensitivity can be achieved than by
using capacitive displacement sensing, primarily due to the strong
piezoelectric coupling strength. We estimate a displacement sensitivity of
order 10^-17 m/Hz^1/2 for a 1 GHz GaAs resonator. Our model solves the
coupled electromechanical response self-consistently, including the
effects of both dissipative and reactive electronic circuit elements on
the resonator behavior. </note> <group> piezo </group> <group1> transistor
</group1> <group2> </group2> <group3> </group3> </p><p> <name>
Marshall200209 </name> <date> 200209 </date> <note> quantum superposition
of a mirror with Penrose and Bouwmeester seeking to measure the largest
quantum object </note> <group> qm </group> <group1> measurement </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Kasevich200211
</name> <date> 200211 </date> <note> Science Review article, The past
decade has seen dramatic progress in our ability to manipulate and
coherently control the motion of atoms. This progress has both fundamental
and applied importance. On the one hand, recent experiments are providing
new perspectives for the study of quantum phase transitions and highly
entangled quantum states. On the other hand, this exquisite control offers
the prospect of a new generation of force sensors of unprecedented
sensitivity and accuracy </note> <group> qm </group> <group1> review
</group1> <group2> </group2> <group3> </group3> </p><p> <name>
Mensky200211 </name> <date> 200211 </date> <note> evolution of an open
system as a continuous measurement of this system by its environment
</note> <group> environment </group> <group1> observation </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Psaltis200211
</name> <date> 200211 </date> <note> Science review, Coherent Optical
Information System </note> <group> optical </group> <group1> information
</group1> <group2> </group2> <group3> </group3> </p><p> <name>
Mensky200212 </name> <date> 200212 </date> <note> quantum dissipative
systems from theory of continuous measurement </note> <group> dissipation
</group> <group1> observation </group1> <group2> </group2> <group3>
</group3> </p><p> <name> NYT200212 </name> <date> 200212 </date> <note>
computer fix thyself is aim of IBM unit, John's first notice of autonomic
computing </note> <group> computing </group> <group1> philosophy </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Terhal200212 </name>
<date> 200212 </date> <note> detecting quantum entanglement </note>
<group> qm </group> <group1> entanglement </group1> <group2> IBM Watson
Research Center </group2> <group3> </group3> </p><p> <name> Zurek200212
</name> <date> 200212 </date> <note> decoherence and the transition from
quantum to classical - revisited - includes a section at the end on
existential interpretation </note> <group> qm </group> <group1> theory
</group1> <group2> Los Alamos Science </group2> <group3> </group3>
</p><p> <name> Nikonov2003 </name> <date> 200300 </date> <note> IEEE
proceedings, spin gain transistor in ferromagnetic semiconductors, the
semiconductor Block equations approach </note> <group> ferromagnetic
</group> <group1> spin </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Barish2003 </name> <date> 200301 </date> <note> Managing
Big Science projects </note> <group> project </group> <group1> management
</group1> <group2> </group2> <group3> </group3> </p><p> <name> Bassi2003
</name> <date> 200301 </date> <note> Dynamical Reduction Models - talks
about measurement and wavepacket reduction </note> <group> qm </group>
<group1> measurement </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Bettelli2003 </name> <date> 200301 </date> <note> This
paper investigates a possible approach to the problem of programming such
machines:  a template high level quantum language is presented which
complements a generic general purpose classical language with a set of
quantum primitives. The underlying scheme involves a run-time environment
which calculates the byte-code for the quantum operations and pipes it to
a quantum device controller or to a simulator.  This language can
compactly express existing quantum algorithms and reduce them to sequences
of elementary operations; it also easily lends itself to automatic,
hardware independent, circuit simplification. </note> <group> qm </group>
<group1> programming </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Blank2003 </name> <date> 200301 </date> <note> esr and nmr
at cornell, High resolution electron spin resonance microscopy, with Freed
</note> <group> esr </group> <group1> microscopy </group1> <group2>
</group2> <group3> </group3> </p><p> <name> Blencowe2003 </name> <date>
200301 </date> <note> Preview to Knoland and Cleland's article on a
resonating crystal beam </note> <group> cantilever </group> <group1> qm
</group1> <group2> </group2> <group3> </group3> </p><p> <name>
Bourianoff2003 </name> <date> 200301 </date> <note> Intel spokesman for
the future of nanocomputing </note> <group> nano </group> <group1>
computing </group1> <group2> </group2> <group3> </group3> </p><p> <name>
Carlson2003 </name> <date> 200301 </date> <note> The Pace and
Proliferation of Biological Technologies </note> <group> biology </group>
<group1> technology </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Cheesbrough2003 </name> <date> 200301 </date> <note> Intel
publication by Harvard business professor about innovation and open source
</note> <group> open source </group> <group1> philosophy </group1>
<group2> </group2> <group3> </group3> </p><p> <name> ChoA2003 </name>
<date> 200301 </date> <note> Science, News Focus, Researchers race to put
the quantum into mechanics </note> <group> cantilever </group> <group1>
feature </group1> <group2> </group2> <group3> </group3> </p><p> <name>
Ciobanu2003 </name> <date> 200301 </date> <note> Magnetic resonance
imaging of biological cells </note> <group> nmr </group> <group1> imaging
</group1> <group2> </group2> <group3> </group3> </p><p> <name>
Collins2003 </name> <date> 200301 </date> <note> The Human Genome Project:
Lessons from Large-Scale Biology </note> <group> biology </group> <group1>
philosophy </group1> <group2> </group2> <group3> </group3> </p><p> <name>
Courty2003 </name> <date> 200301 </date> <note> LIGO Quantum locking of
mirrors in interferometers </note> <group> interferometer </group>
<group1> control </group1> <group2> </group2> <group3> </group3> </p><p>
<name> D'Allesandro2003a </name> <date> 200301 </date> <note> On Quantum
State Observability and Measurement, We consider the problem of
determining the state of a quantum system given one or more readings of
the expectation value of an observable. The system is assumed to be a
finite dimensional quantum control system for which we can influence the
dynamics by generating all the unitary evolutions in a Lie group. We
investigate to what extent, by an appropriate sequence of evolutions and
measurements, we can obtain information on the initial state of the
system. We present a system theoretic viewpoint of this problem in that we
study the observability of the system. </note> <group> qm </group>
<group1> measurement </group1> <group2> </group2> <group3> </group3>
</p><p> <name> D'Alessandro2003 </name> <date> 200301 </date> <note> the
control theoretic properties of a couple of interacting spin 1's driven by
an electro-magnetic field. In particular, we assume that it is possible to
observe the expectation value of the total magnetization and we study
controllability, observability and parameter identification of these
systems. We give conditions for controllability and observability and
characterize the classes of equivalent models which have the same
input-output behavior. The analysis is motivated by the recent interest in
three level systems in quantum information theory and quantum cryptography
as well as by the problem of modeling molecular magnets as spin networks.
</note> <group> qm </group> <group1> systems </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Deblock2003 </name> <date> 200301
</date> <note> Detection of Quantum Noise from an Electrically Driven
Two-Level System </note> <group> qm </group> <group1> noise </group1>
<group2> </group2> <group3> </group3> </p><p> <name> DOE2003 </name>
<date> 200301 </date> <note> Got John started with Helen Quinn about the
principled limitations of the destructive use of electrons, xrays or
neutrons for any imaging illumination that the authors didn't seem to
reference - henderson's reference </note> <group> program </group>
<group1> goals </group1> <group2> </group2> <group3> </group3> </p><p>
<name> Doherty2003 </name> <date> 200301 </date> <note> A complete family
of separability criteria, he appears as co-author on a number of quantum
computing-type articles </note> <group> qm </group> <group1> theory
</group1> <group2> </group2> <group3> </group3> </p><p> <name>
Drummond2003 </name> <date> 200301 </date> <note> Stochastic Guage theory
for solving a many-body problem </note> <group> qm </group> <group1>
theory </group1> <group2> </group2> <group3> </group3> </p><p> <name>
DysonE2003 </name> <date> 200301 </date> <note> her journal Release 1.0
where she talks about structure, language, ontology and semantics </note>
<group> structure </group> <group1> philosophy </group1> <group2>
</group2> <group3> </group3> </p><p> <name> DysonE2003a </name> <date>
200301 </date> <note> her journal Release 1.0 where she goes on from
structure to describe models </note> <group> models </group> <group1>
philosophy </group1> <group2> </group2> <group3> </group3> </p><p> <name>
Fell2003 </name> <date> 200301 </date> <note> ARL slideshow on carbon
structures and photonics - Doran's manager </note> <group> electronic
</group> <group1> biology </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Gamwell200301 </name> <date> 200301 </date> <note> Science
essay, Advances in microscopy in the 19th century revealed a new world of
tiny organisms, cells, and microbes that continues to inspire artists,
architects, and the general public.  Beyond the Visible Microscopy,
Nature, and Art </note> <group> microscopy </group> <group1> art </group1>
<group2> New York Academy of Science, Gallery of Art and Science, Curator
</group2> <group3> </group3> </p><p> <name> Geremia2003 </name> <date>
200301 </date> <note> Quantum Kalman Filtering and the Heisenberg Limit in
Atomic Magnetometry, with Mabuchi, Stockton, and Dougherty at Caltech
</note> <group> Kalman </group> <group1> filters </group1> <group2>
</group2> <group3> </group3> </p><p> <name> Ghose2003 </name> <date>
200301 </date> <note> Continuous observation of a quantum system yields a
measurement record that faithfully reproduces the classically predicted
trajectory provided that the measurement is sufficiently strong to
localize the state in phase space but weak enough that quantum backaction
noise is negligible. We investigate the conditions under which classical
dynamics emerges, via continuous position measurement, for a particle
moving in a harmonic well with its position coupled to internal spin. As a
consequence of this coupling we find that classical dynamics emerges only
when the position and spin actions are both large compared. These
conditions are quantified by placing bounds on the size of the covariance
matrix which describes the delocalized quantum coherence over extended
regions of phase space. From this result it follows that a mixed
quantum-classical regime (where one subsystem can be treated classically
and the other not) does not exist for a continuously observed spin 1/2
particle. When the conditions for classicallity are satisfied (in the
large-spin limit), the quantum trajectories reproduce both the classical
periodic orbits as well as the classically chaotic phase space regions. As
a quantitative test of this convergence we compute the largest Lyapunov
exponent directly from the measured quantum trajectories and show that it
agrees with the classical value. </note> <group> qm </group> <group1>
measurement </group1> <group2> </group2> <group3> </group3> </p><p>
<name> Gisin2003 </name> <date> 200301 </date> <note> Sundays in a Quantum
Engineer's Life, starts-off with John Bell's description of himself as an
engineer </note> <group> qm </group> <group1> engineering </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Halliwell2003
</name> <date> 200301 </date> <note> Some Recent Developments in the
Decoherent Histories Approach to Quantum Theory </note> <group> qm
</group> <group1> decoherence </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Herschman2003 </name> <date> 200301 </date>
<note> Noninvasive molecular-imaging technologies are providing
researchers with exciting new opportunities to study small-animal models
of human disease. With continued improvements in instrumentation,
identification of better imaging targets by genome-based approaches, and
design of better imaging probes by innovative chemistry, these
technologies promise to play increasingly important roles in disease
diagnosis and therapy. </note> <group> molecular </group> <group1> imaging
</group1> <group2> </group2> <group3> </group3> </p><p> <name>
Hopkins2003 </name> <date> 200301 </date> <note> with Habib and Schwab,
Feedback cooling of a nanomechanical resonator, Cooled, low-loss
nanomechanical resonators o er the prospect of directly observing the
quantum dynamics of mesoscopic systems. However, the present state of the
art requires cooling down to the milliKelvin regime in order to observe
quantum e ects. Here we present an active feedback strategy based on
continuous observation of the resonator position for the purpose of
obtaining these low temperatures. In addition, we apply this to an
experimentally realizable configuration, where the position monitoring is
carried out by a single-electron transistor. Our estimates indicate that
with current technology this technique is likely to bring the required low
temperatures within reach. </note> <group> oscillator </group> <group1>
control </group1> <group2> </group2> <group3> </group3> </p><p> <name>
Horber2003 </name> <date> 200301 </date> <note> review article on force
microscopy in biology </note> <group> microscopy </group> <group1> review
</group1> <group2> </group2> <group3> </group3> </p><p> <name>
Madeley200301 </name> <date> 200301 </date> <note> Diagnosing smallpox in
possible bioterrorist attack </note> <group> biology </group> <group1>
diagnosis </group1> <group2> </group2> <group3> </group3> </p><p> <name>
Martin200301 </name> <date> 200301 </date> <note> Phys Rev Lett, A scheme
for electrical detection of single-electron spin resonance </note> <group>
spin </group> <group1> read-out </group1> <group2> LANL, UCLA </group2>
<group3> references Sidles </group3> </p><p> <name> NYT200301 </name>
<date> 200301 </date> <note> scientists discuss balance of research and
security </note> <group> science </group> <group1> philosophy </group1>
<group2> </group2> <group3> </group3> </p><p> <name> silveira200301
</name> <date> 200301 </date> <note> with Marohn, a vertical coarse
approach for variable temperature scanned probe microscopy </note> <group>
positioner </group> <group1> instrument </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Swedlow2003 </name> <date> 200301
</date> <note> Part of a review collection introduced by Reudi Abersold of
the ISB, Swedlow identifies that biological imaging is quantitative, and
hence bioinformatics is important.  They are developing the Open
Microscopy Environment (OME) to consistently record the varieties of data
generated by different sample preparations, different imaging devices and
methodologies, and different image deconvolution.  XML is used to tag each
piece of data, creating files out of a central, relational database.
Modules representing linked investigative paths independently communicate
with the database to generate XML files whose semantic content they hope
will be complete and founded in consistency.  Data analysis and
interpretation are challenges, but the solution by informatics is equally
a solution by community.  This solution outlines the many solutions that
will continue to emerge as a listable property of this effort, and one we
prospectively hope has enduring value. </note> <group> biology </group>
<group1> classification </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Ahn2003 </name> <date> 200302 </date> <note> preprint, We
show that quantum feedback control can be used as a quantum error
correction process for errors induced by weak continuous measurement. In
particular, when the error model is restricted to one, perfectly measured,
error channel per physical qubit, quantum feedback can act to perfectly
protect a stabilizer codespace. Using the stabilizer formalism we derive
an explicit scheme, involving feedback and an additional constant
Hamiltonian, to protect an (n - 1)-qubit logical state encoded in n
physical qubits. </note> <group> qm </group> <group1> control </group1>
<group2> Caltech </group2> <group3> with Milburn </group3> </p><p> <name>
Kent200302 </name> <date> 200302 </date> <note> growing magnetic tips with
deposition techniques and STM, Awschalom group </note> <group> magnetic
</group> <group1> tips </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Steane200303 </name> <date> 200303 </date> <note> a
quantum computer only needs one universe - I think John recommended this
articcle to me as philosophical background </note> <group> qm </group>
<group1> computation </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Aebersold2003 </name> <date> 200304 </date> <note> Nature
review article on mass spectrometry </note> <group> spectroscopy </group>
<group1> review </group1> <group2> University of Washington, University of
Southern Denmark </group2> <group3> </group3> </p><p> <name>
Swedlow200304 </name> <date> 200304 </date> <note> Science, viewpoint,
informatics and quantitative analysis in biological imaging </note>
<group> biology </group> <group1> information </group1> <group2> </group2>
<group3> </group3> </p><p> <name> ZhaoL200304 </name> <date> 200304
</date> <note> quality assurance under the open source development model
</note> <group> business </group> <group1> model </group1> <group2>
Philips Research </group2> <group3> </group3> </p><p> <name>
Penfield200305 </name> <date> 200305 </date> <note> "One Hundred Years of
Transformation," The Centennial Celebration of the MIT Department of
Electrical Engineering and Computer Science, </note> <group> computer
</group> <group1> history </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Stein200305 </name> <date> 200305 </date> <note> Nature
reviews, integrating biological databases </note> <group> database
</group> <group1> biology </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Dowling200306 </name> <date> 200306 </date> <note> Phil
Trans R Soc Lond A, 361, Quantum technology: the second quantum revolution
</note> <group> instrument </group> <group1> review </group1> <group2>
JPL, University of Cambridge, University of Queensland </group2> <group3>
references Sidles </group3> </p><p> <name> Kohout200306 </name> <date>
200306 </date> <note> with Zurek, decoherence from a chaotic environment,
and upside down oscillator as a model </note> <group> oscillator </group>
<group1> model </group1> <group2> </group2> <group3> </group3> </p><p>
<name> Rewienskiw200306 </name> <date> 200306 </date> <note> Dissertation,
A trajectory piecewise-linear approach to model order reduction of
nonlinear dynamical systems </note> <group> nonlinear </group> <group1>
mor </group1> <group2> MIT </group2> <group3> </group3> </p><p> <name>
Sigg200306 </name> <date> 200306 </date> <note> LIGO memo, angular
instabilities in high power Fabry-Perot cavities </note> <group> cavity
</group> <group1> theory </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Knobel200307 </name> <date> 200307 </date> <note> with
Cleland, Nature Letters, Nanometre-scale displacement sensing using a
single electron transistor </note> <group> nanometer </group> <group1>
positioning </group1> <group2> </group2> <group3> </group3> </p><p>
<name> Liu200307 </name> <date> 200307 </date> <note> randomness:
rethinking the foundation of probability </note> <group> probability
</group> <group1> philosophy </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Lynds200308 </name> <date> 200308 </date> <note>
Fdns Phys Lett, Time and classical and quantum mechanics: indeterminacy
versus discontinuity </note> <group> time </group> <group1> theory
</group1> <group2> independent </group2> <group3> </group3> </p><p>
<name> Mounce200308 </name> <date> 200308 </date> <note> trade article on
fiber optic principles </note> <group> optical </group> <group1>
principles </group1> <group2> </group2> <group3> </group3> </p><p> <name>
NSF200308 </name> <date> 200308 </date> <note> NSF Tokyo Regional Office
special scientific report prepared by william blampied mostly about tech
transfer and collaborations </note> <group> japan </group> <group1>
technology </group1> <group2> </group2> <group3> </group3> </p><p> <name>
Vogel200308 </name> <date> 200308 </date> <note> optically tunable
mechanics of microlevers </note> <group> fabry-perot </group> <group1>
cantilevers </group1> <group2> Universitat Munchen </group2> <group3>
</group3> </p><p> <name> WTEC_Panel200308 </name> <date> 200308 </date>
<note> final report, by Awschalom, Buhrman, Daughton, Roukes and Molnar on
spintronics </note> <group> spintronics </group> <group1> history
</group1> <group2> NSF and ONR under WTEC </group2> <group3> </group3>
</p><p> <name> Ardenkjaer-Larsen200309 </name> <date> 200309 </date>
<note> PNAS, 100, 18, Increase in signal-to-noise ratio of >10,000 times
in liquid-state NMR </note> <group> dnp </group> <group1> nmr </group1>
<group2> Amersham Health </group2> <group3> </group3> </p><p> <name>
Meyer200309 </name> <date> 200309 </date> <note> An all optical method
designed to test the functionality of nanoelectromechanical systems is
presented. Silicon tweezers consisting of freestanding nanometer-sized
prongs are prepared using electron beam lithography. Images of the
tweezers structures are taken by scanning confocal microscopy while the
prongs are electrostatically actuated under a low frequency ac voltage.
The images, which are demodulated at the actuation frequency and its
higher harmonics, clearly resolve the actuating parts of the tweezers.
</note> <group> nano </group> <group1> tweezers </group1> <group2>
</group2> <group3> </group3> </p><p> <name> Nielsen200309 </name> <date>
200309 </date> <note> Talk, Extreme Thinking </note> <group> learning
</group> <group1> theory </group1> <group2> University of Queensland
</group2> <group3> </group3> </p><p> <name> Rao200309 </name> <date>
200309 </date> <note> LIGO, with Heefner, measuring thermoelastic noise
</note> <group> noise </group> <group1> theory </group1> <group2>
</group2> <group3> </group3> </p><p> <name> Stockton200309 </name> <date>
200309 </date> <note> with Mabuchi, robust quantum parameter estimation:
coherent magnetometry with feedback </note> <group> optimal </group>
<group1> control </group1> <group2> Caltech </group2> <group3> with
Mabuchi </group3> </p><p> <name> RSI200310 </name> <date> 200310 </date>
<note> RSI editors office, these are comments reviewers made about Joseph
Chao's article </note> <group> mrfm </group> <group1> review </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Seeger200310 </name>
<date> 200310 </date> <note> J MEMS, 12, Charge Control of Parallel-Plate,
Electrostactic Actuators and the Tip-In Instability, recommended by Austin
and approved by Joe for the foundation of Austin's thesis </note> <group>
piezo </group> <group1> instability </group1> <group2> UC Berkeley
</group2> <group3> </group3> </p><p> <name> Service200310 </name> <date>
200310 </date> <note> Science, next-generation technology hits an early
midlife crisis as researchers hope for a new revolution in miniature
electronic gadgetry will take some time before breakthrough </note>
<group> instrument </group> <group1> history </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Tarrach200310 </name> <date> 200310
</date> <note> dynamics of the fluorescence emission from single rhodamine
6G molecules, power point presentation from a group in Chile that links to
MRFM studies - this one is a good overview of microscopy using SNOM and
fiber optic tips, but also a clear presentation of sample preparation with
spin studies </note> <group> snom </group> <group1> microscopy </group1>
<group2> Pontificia Universidad Catolica de Chile </group2> <group3> with
Vargas </group3> </p><p> <name> Zhirnov200311 </name> <date> 200311
</date> <note> IEEE Proceedings, limits to binary logic switch scaling - a
gedanken model considering device scaling and speed limitations on
irreversible von Neumann computing in systems whose material realizations
utilize electrons and energy barriers to represent and manipulate their
binary representations of state </note> <group> computing </group>
<group1> theory </group1> <group2> Semiconductor Research Corporation
</group2> <group3> </group3> </p><p> <name> Mancini200312 </name> <date>
200312 </date> <note> I put a different article in the MRFM biblio with
the exact title dated 200502, with the same authors, and I thought I might
as well include them in the MRFM investigators.  We study the quantum
dynamics of a model for the single-spin measurement in magneticresonance
force microscopy. We consider an oscillating driven cantilever coupled
with the magnetic moment of the sample. Then, the cantilever is damped
through an external bath and its readout is provided by a radiation field.
Conditions for reliable measurements will be discussed. </note> <group>
mrfm </group> <group1> measurement </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Oakley200312 </name> <date> 200312 </date>
<note> Transactions of Nanotech IEEE draft article, A review of
nanoscience and nanotech efforts in North America </note> <group> nanotech
</group> <group1> review </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Shayegan200312 </name> <date> 200312 </date> <note>
low-temperature in situ tunable, uniaxial stress measurements in
semiconductors using a piezoelectric actuator </note> <group> piezo
</group> <group1> temperature </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Bienfang2004 </name> <date> 200401 </date>
<note> Quantum key distribution with 1.25 Gbps clock synchronization, with
Charles Clark </note> <group> qm </group> <group1> cryptography </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Brown2004 </name>
<date> 200401 </date> <note> Stanford editorial Vantage Point: PLoS
co-founder defends free dissemination of peer-reviewed journals online
</note> <group> freedom </group> <group1> information </group1> <group2>
</group2> <group3> </group3> </p><p> <name> BrownKR2004 </name> <date>
200401 </date> <note> single electron detection, We demonstrate a scanning
force microscope, based upon a quartz tuning fork, that operates below 100
mK and in magnetic fields up to 6 T. The microscope has a conducting tip
for electrical probing of nanostructures of interest, and it incorporates
a low noise cryogenic amplifier to measure both the vibrations of the
tuning fork and the electrical signals from the nanostructures. At
millikelvin temperatures, the imaging resolution is below 1 mm in a 22um x
22um range, and a coarse motion provides translations of a few mm. This
scanned probe is useful for high bandwidth measurementof many high
impedance nanostructures on a single sample. </note> <group> single spin
</group> <group1> detection </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Cech2004 </name> <date> 200401 </date> <note>
Nurturing interdisciplinary research with a focus on advances that have
been made possible in biology </note> <group> biology </group> <group1>
management </group1> <group2> </group2> <group3> </group3> </p><p> <name>
Childs2004 </name> <date> 200401 </date> <note> with Leung and Nielsen,
Unified derivations of measurement-based schemes for quantum computation
</note> <group> qm </group> <group1> measurement </group1> <group2>
</group2> <group3> </group3> </p><p> <name> Chiorescu2004 </name> <date>
200401 </date> <note> qubits and oscillators </note> <group> qm </group>
<group1> oscillators </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Chumak2004 </name> <date> 200401 </date> <note> Effects of
electrostatic fields and Casimir force on cantilever vibrations with
Genady Berman </note> <group> casimir </group> <group1> force </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Ciobanu2004 </name>
<date> 200401 </date> <note> Signal enhancement by diffusion: experimental
observation of the desired effect </note> <group> nmr </group> <group1>
diffusion </group1> <group2> </group2> <group3> </group3> </p><p> <name>
Cleland2004 </name> <date> 200401 </date> <note> Superconducting Qubit
Storage and Entanglement with Nanomechanical Resonators </note> <group> qm
</group> <group1> oscillators </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Colton2004 </name> <date> 200401 </date> <note>
Nanoscale measurements and manipulation from the NRL perspective </note>
<group> nano </group> <group1> measurement </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Crooker2004 </name> <date> 200401
</date> <note> with Doran Smith, Spectroscopy of spontaneous spin noise as
a probe of spin dynamics and magnetic resonance </note> <group> spin
</group> <group1> noise </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Cumpson2004 </name> <date> 200401 </date> <note>
Microelectromechanical system device for calibration of atomic force
microscope cantilever spring constants between 0.01 and 4 N/m </note>
<group> cantilever </group> <group1> calibration </group1> <group2>
</group2> <group3> </group3> </p><p> <name> Eisert2004 </name> <date>
200401 </date> <note> We study arrays of mechanical oscillators in the
quantum domain and demonstrate how the motions of distant oscillators can
be entangled without the need for control of individual oscillators and
without a direct interaction between them. These oscillators are thought
of as being members of an array of nanoelectromechanical resonators with a
voltage being applicable between neighboring resonators. Sudden
nonadiabatic switching of the interaction results in a squeezing of the
states of the mechanical oscillators, leading to an entanglement transport
in chains of mechanical oscillators.We discuss spatial dimensions, Q
factors, temperatures and decoherence sources in some detail, and find a
distinct robustness of the entanglement in the canonical coordinates in
such a scheme.We also briefly discuss the challenging aspect of detection
of the generated entanglement.  German group with people in London and
collaborator at Caltech </note> <group> qm </group> <group1> cantilevers
</group1> <group2> </group2> <group3> </group3> </p><p> <name> Ekinci2004
</name> <date> 200401 </date> <note> with Huang and Roukes, We describe
the application of nanoelectromechanical systems (NEMS) to ultrasensitive
mass detection. In these experiments, a modulated flux of atoms was
adsorbed upon the surface of a 32.8 MHz NEMS resonator within an ultrahigh
vacuum environment. The mass-induced resonance frequency shifts by these
adsorbates were then measured to ascertain a mass sensitivity of
2.53x10^-18g. In these initial measurements, this sensitivity is limited
by the noise in the NEMS displacement transducer; the ultimate, limits of
the technique are set by fundamental phase noise processes. Our results
and analysis indicate that mass sensing of individual molecules will be
realizable with optimized NEMS devices. </note> <group> cantilever
</group> <group1> sensors </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Ekinci200403 </name> <date> 200401 </date> <note> with
Roukes and Huang, Here we evaluate the ultimate mass sensitivity limits
for nanomechanical resonators operating in vacuo that are imposed by a
number of fundamental physical noise processes. Our analyses indicate that
nanomechanical resonators offer immense potential for mass
sensing ultimately with resolution at the level of individual molecules.
</note> <group> cantilever </group> <group1> limits </group1> <group2>
</group2> <group3> </group3> </p><p> <name> Ekinci200405 </name> <date>
200401 </date> <note> with Roukes and Huang, We describe the application
of nanoelectromechanical systems NEMS to ultrasensitive mass detection. In
these experiments, a modulated flux of atoms was adsorbed upon the surface
of a 32.8 MHz NEMS resonator within an ultrahigh-vacuum environment. The
mass-induced resonance frequency shifts by these adsorbates were then
measured to ascertain a mass sensitivity of 2.53x10^-18 g. In these
initial measurements, this sensitivity is limited by the noise in the NEMS
displacement transducer; the ultimate limits of the technique are set by
fundamental phase noise processes. Our results and analysis indicate that
mass sensing of individual molecules will be realizable with optimized
NEMS devices. </note> <group> cantilever </group> <group1> sensitivity
</group1> <group2> </group2> <group3> </group3> </p><p> <name>
Elzerman2004 </name> <date> 200401 </date> <note> single-spin detection
published after Dan's results using a quantum dot.  We use spin-to-charge
conversion of a single electron confined in the dot, and detect the
singleelectron charge using a quantum point contact; the spin measurement
visibility is approx 65%. Furthermore, we observe very long single-spin
energy relaxation times (up to,0.85 ms at a magnetic field of 8 T), which
are encouraging for the use of electron spins as carriers of quantum
information. </note> <group> spin </group> <group1> detection </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Geremia2004 </name>
<date> 200401 </date> <note> Real-time feedback performed during a quantum
nondemolition measurement of atomic spin-angular momentum allowed us to
in¥uence the quantum statistics of the measurement outcome. We showed that
it is possible to harness measurement backaction as a form of actuation in
quantum control, and thus we describe a valuable tool for quantum
information science. Our feedbackmediated procedure generates spin
squeezing, for which the reduction in quantum uncertainty and resulting
atomic entanglement are not conditioned on the measurement outcome.  with
Mabuchi and Stockton </note> <group> control </group> <group1> measurement
</group1> <group2> </group2> <group3> </group3> </p><p> <name>
Giovannetti2004 </name> <date> 200401 </date> <note> Additivity properties
of Gaussian channel, with Seth Lloyd </note> <group> qm </group> <group1>
measurement </group1> <group2> </group2> <group3> </group3> </p><p>
<name> Gupta2004 </name> <date> 200401 </date> <note> This article
describes a surface micromachined cantilever beam-based resonator for
biological sensing applications. The study used a novel microfabrication
technique of merged epitaxial lateral overgrowth (MELO) and chemical
mechanical polishing (CMP) to fabricate thin, low stress, single-crystal
silicon cantilever beams. The vibration spectra of the cantilever beams,
excited by thermal and ambient noise, was measured in air using a
Dimension 3100 Series scanning probe microscope (SPM), and in certain
cases, a Polytec MSV300 laser Doppler vibrometer. The sensors were used to
detect the mass of Listeria innocua bacteria by applying increasing
concentration of bacteria suspension on the same cantilever beams and
measuring the resonant frequency changes in air. Cantilever beams were
also used to detect the mass of proteins such as Bovine Serum Albumin
(BSA) and antibodies for Listeria that were attached to the cantileverÕs
surfaces by physical adsorption; following which they were used to capture
and detect the mass of the bacterial cells on the functionalized
cantilever beam surfacesÕ. The effects of critical point drying of the
proteins were evaluated and the results indicate that the functionality of
the antibodies was not reduced once rehydrated after critical point
drying. The developed biosensor is capable of rapid and ultrasensitive
detection of bacteria and promises significant potential for the
enhancement of microbiological research and diagnostics. </note> <group>
cantilever </group> <group1> sensors </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Gysin200401 </name> <date> 200401 </date> <note>
with Rast, the Swiss group, Temperature dependence of the force
sensitivity of silicon cantilevers </note> <group> cantilever </group>
<group1> temperature </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Halpin2004 </name> <date> 200401 </date> <note> PLOS
article cited as an engineering milestone for DNA management, Recently
reported technologies for DNA-directed organic synthesis and for DNA
computing rely on routing DNA populations through complex networks. The
reduction of these ideas to practice has been limited by a lack of
practical experimental tools. Here we describe a modular design for DNA
routing genes, and routing machinery made from oligonucleotides and
commercially available chromatography resins. The routing machinery
partitions nanomole quantities of DNA into physically distinct subpools
based on sequence. Partitioning steps can be iterated indefinitely, with
worst-case yields of 85% per step. These techniques facilitate DNA
programmed chemical synthesis, and thus enable a materials biology that
could revolutionize drug discovery. </note> <group> biology </group>
<group1> tools </group1> <group2> </group2> <group3> </group3> </p><p>
<name> Handell2004 </name> <date> 200401 </date> <note> with Stockton and
Mabuchi, Feedback Control of Quantum State Reduction </note> <group> qm
</group> <group1> control </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Harrison2004 </name> <date> 200401 </date> <note>
discovery of antivirals against smallpox - this NAS article has the
picture showing a limit of electron micrographs with an associated cartoon
drawn from the sequence information as the two limits of our current
technology </note> <group> virus </group> <group1> biology </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Heinrich2004 </name>
<date> 200401 </date> <note> single-spin flip detection with Eigler
</note> <group> spin </group> <group1> experiments </group1> <group2>
</group2> <group3> </group3> </p><p> <name> IBM2004 </name> <date> 200401
</date> <note> autonomic computing position paper on several computing
features that IBM would pursue in a strategic plan </note> <group>
computing </group> <group1> theory </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Ilick2004 </name> <date> 200401 </date> <note>
We have used a resonating mechanical cantilever to detect immunospecific
binding of viruses, captured from liquid. As a model virus, we used a
nonpathogenic insect baculovirus to test the ability to specifically bind
and detect small numbers of virus particles. Arrays of surface
micromachined, antibody-coated polycrystalline silicon nanomechanical
cantilever beams were used to detect binding from various concentrations
of baculoviruses in a buffer solution. Because of their small mass, the
0.5 um x 6 um cantilevers have mass sensitivities on the order of 10-19
gHz, enabling the detection of an immobilized AcV1 antibody monolayer
corresponding to a mass of about 3x10-15 g. With these devices, we can
detect the mass of single-virus particles bound to the cantilever.
Resonant frequency shift resulting from the adsorbed mass of the virus
particles distinguished solutions of virus concentrations varying between
10^5 and 10^7 pfu/ ml. Control experiments using buffer solutions without
baculovirus showed small amounts less than 50 attograms of nonspecific
adsorption to the antibody layer. / </note> <group> cantilever </group>
<group1> sensors </group1> <group2> </group2> <group3> </group3> </p><p>
<name> Jahnchke2004 </name> <date> 200401 </date> <note> In scanning probe
microscopy, it is critical to maintain small probe sample separations for
high resolution imaging. Quartz crystal tuning forks are typically used
for detecting shear forces in near-field scanning optical microscopy and
normal forces in other atomic force-related microscopies. In this article
we compare several tuning fork based detection schemes to determine which
solution gives the best signal to noise ratio. The high impedance and low
signals produced by the tuning fork necessitate care in selection of an
appropriate preamplifier. We find that a carefully guarded voltage
preamplifier sensing a mechanically driven tuning fork performs the best,
but an electrically driven fork with a current preamplifier offers simpler
construction with only 25% lower signal to noise ratio on average. </note>
<group> oscillator </group> <group1> snr </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Jericho2004 </name> <date> 200401
</date> <note> Micro-electro-mechanical systems microtweezers for the
manipulation of bacteria and small particles </note> <group> sample
</group> <group1> prep </group1> <group2> </group2> <group3> </group3>
</p><p> <name> MartinI200401 </name> <date> 200401 </date> <note> with
Zoller, ground state cooling of mechanical oscillators </note> <group>
cantilever </group> <group1> heat </group1> <group2> </group2> <group3>
</group3> </p><p> <name> NSF200401 </name> <date> 200401 </date> <note>
NSF Tokyo Regional Office peiodic report on business academia government
arrangements in Japan </note> <group> japan </group> <group1> technology
</group1> <group2> </group2> <group3> </group3> </p><p> <name>
Peres200401 </name> <date> 200401 </date> <note> with Terno, This article
discusses the intimate relationship between quantum mechanics, information
theory, and relativity theory. Taken together these are the foundations of
present-day theoretical physics, and their interrelationship is an
essential part of the theory. The acquisition of information from a
quantum system by an observer occurs at the interface of classical and
quantum physics. The authors review the essential tools needed to describe
this interface, i.e., Kraus matrices and positive-operator-valued
measures. They then discuss how special relativity imposes severe
restrictions on the transfer of information between distant systems and
the implications of the fact that quantum entropy is not a
Lorentz-covariant concept. This leads to a discussion of how it comes
about that Lorentz transformations of reduced density matrices for
entangled systems may not be completely positive maps. Quantum field
theory is, of course, necessary for a consistent description of
interactions. Its structure implies a fundamental tradeoff between
detector reliability and localizability. Moreover, general relativity
produces new and counterintuitive effects, particularly when black holes
(or, more generally, event horizons) are involved. In this more general
context the authors discuss how most of the current concepts in quantum
information theory may require a reassessment. </note> <group> qm </group>
<group1> theory </group1> <group2> </group2> <group3> </group3> </p><p>
<name> Sazonova2004 </name> <date> 200401 </date> <note> a tunable carbon
nanotube as a mechanical oscillator </note> <group> nanotube </group>
<group1> oscillators </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Vendors2004 </name> <date> 200401 </date> <note> Nature
technology vendor list 2004 </note> <group> industry </group> <group1>
directory </group1> <group2> </group2> <group3> </group3> </p><p> <name>
Terno200402 </name> <date> 200402 </date> <note> inconsistency of quantum
classical dynamics, and what it implies </note> <group> qm </group>
<group1> dynamics </group1> <group2> Perimeter Institute for Theoretical
Physics </group2> <group3> </group3> </p><p> <name> Zhao200204 </name>
<date> 200402 </date> <note> dual-wavelength parallel interferometer with
superhigh resolution </note> <group> interferometer </group> <group1>
design </group1> <group2> University of Illinois at Chicago </group2>
<group3> with Beijing University </group3> </p><p> <name> Bulaevskii200404
</name> <date> 200404 </date> <note> LANL, mostly about spin physics in
Josephson oscillators, but begins with this quote about MRFM, Detection of
small spin clusters, down to a single spin, aroused great interest
recently. Approaches to spin detection include optical techniques [1] and
magnetic resonance force microscopy (MRFM), which showed recently the
sensitivity of order 10Ð100 spins [2]. The single-spin detection, however,
will require fundamental improvements of the method of MRFM. Further
approaches are based on the spin-dependent tunneling in mesoscopic devices
[3,4]. These are motivated, in particular, by applications to quantum
computing. </note> <group> qm </group> <group1> oscillators </group1>
<group2> </group2> <group3> </group3> </p><p> <name> RoukesPatent200494
</name> <date> 200404 </date> <note> USPTO, Apparatus and method for
ultrasensitive nanoelectromechanical mass detection.  The invention
relates to the application of the techniques of nanoelectromechanical
systems (NEMS) to ultrasensitive mass detection. A pulsed flux of atoms is
adsorbed onto the surface of a 32.8 MHz nanomechanical resonator within an
ultrahigh vacuum environment. The mass-induced frequency shifts from these
adsorbates are then used to demonstrate a mass sensitivity of
.about.1.46.times.10.sup.6 Daltons (Da). </note> <group> IP </group>
<group1> sensors </group1> <group2> </group2> <group3> </group3> </p><p>
<name> Paul200406 </name> <date> 200406 </date> <note> with Cross at
Caltech, stochastic dynamics of nanoscale mechanical oscillators immersed
in a viscous fluid </note> <group> fluid </group> <group1> oscillators
</group1> <group2> </group2> <group3> </group3> </p><p> <name>
Pufall200406 </name> <date> 200406 </date> <note> We show that a
spin-polarized dc current passing through a small magnetic element induces
two-state, random telegraph switching of the magnetization via the
spin-momentum transfer effect. The resistances of the states differ by up
to 50% of the change due to complete magnetization reversal. Fluctuations
are seen for a wide range of currents and magnetic fields, with rates that
can exceed 2 GHz, and involve collective motion of a large volume s10^4
nm^3 of spins. Switching rate trends with field and current indicate that
increasing temperature alone cannot explain the dynamics. The rates
approach a stochastic regime wherein dynamics are governed by both
precessional motion and thermal perturbations. </note> <group> rts
</group> <group1> spin </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Tian200406 </name> <date> 200406 </date> <note>
interfacing quantum-optical and solid-state qubits </note> <group> qm
</group> <group1> integration </group1> <group2> IQOQI </group2> <group3>
with Zoller </group3> </p><p> <name> Lavrik200407 </name> <date> 200407
</date> <note> with Datskos, Cantilever transducers as a platform for
chemical and biological sensors, Review article in Rev Sci Inst </note>
<group> cantilever </group> <group1> review </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Xiao200407 </name> <date> 200407
</date> <note> Nature, electrical detection of the spin resonance of a
single electron in a silicon field-effect transistor, the other
single-spin detection published in the summer of 2004 </note> <group> spin
</group> <group1> detection </group1> <group2> UCLA with Los Alamos
</group2> <group3> </group3> </p><p> <name> ZhangXR200407 </name> <date>
200407 </date> <note> development of a biosensor based on laser-fabricated
polymer cantilevers </note> <group> polymer </group> <group1> cantilevers
</group1> <group2> Purdue University </group2> <group3> </group3> </p><p>
<name> Alberts2004 </name> <date> 200408 </date> <note> PNAS editorial,
Harnessing new science is vital for biodefense and global health </note>
<group> biology </group> <group1> defense </group1> <group2> NAS </group2>
<group3> </group3> </p><p> <name> Lloyd200408 </name> <date> 200408
</date> <note> Nature essay about reversible computing, Nothing in life is
certain except death, taxes and the second law of thermodynamics. All
three are processes in which useful or accessible forms of some quantity,
such as energy or money, are transformed into useless, inaccessible forms
of the same quantity. That is not to say that these three processes donÕt
have fringe benefits: taxes pay for roads and schools; the second law of
thermodynamics drives cars, computers and metabolisms; and death, at the
very least, opens up tenured faculty positions. </note> <group> qm
</group> <group1> computing </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Madsen200408 </name> <date> 200408 </date>
<note> with Weitekamp, Observation of magnetization, enhanced resolution,
and no gradient), a sensitive and general method of magnetic resonance.
The prototype millimeter-scale NMR spectrometer shows signal and noise
levels in agreement with the design principles.Wepresent 1H and 19F NMR in
both solid and liquid samples, including timedomain Fourier transform NMR
spectroscopy, multiple-pulse echoes, and heteronuclear J spectroscopy. By
measuring a 1H-19F J coupling, this last experiment accomplishes
chemically specific spectroscopy with force-detected NMR. In BOOMERANG, an
assembly of permanent magnets provides a homogeneous field throughout the
sample, while a harmonically suspended part of the assembly, a detector,
is mechanically driven by spin-dependent forces. By placing the sample in
a homogeneous field, signal dephasing by diffusion in a field gradient is
made negligible, enabling application to liquids, in contrast to other
force-detection methods. The design appears readily scalable to um-scale
samples where it should have sensitivity advantages over inductive
detection with microcoils and where it holds great promise for application
of magnetic resonance in biology, chemistry, physics, and surface science.
We briefly discuss extensions of the BOOMERANG method to the um and nm
scales. </note> <group> nmr </group> <group1> gradient </group1> <group2>
</group2> <group3> </group3> </p><p> <name> McFarland200408 </name>
<date> 200408 </date> <note> polymer cantilevers from the Georgia
Institute of Technology, 500 x 20 x 2 um length, width, thickness -
compared to ceramic and photopolymer microcantilevers </note> <group>
cantilever </group> <group1> polymers </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Mikkelsen200408 </name> <date> 200408
</date> <note> direct imaging of the atomic structure inside a nanowire by
STM </note> <group> nanowire </group> <group1> imaging </group1> <group2>
</group2> <group3> </group3> </p><p> <name> Stephens200408 </name> <date>
200408 </date> <note> with Awschalom, optically patterned nuclear
doughnuts in GaAs/MnAs heterostructures </note> <group> spintronic
</group> <group1> polarization </group1> <group2> USCB </group2> <group3>
with Awschalom </group3> </p><p> <name> Jensen200409 </name> <date>
200409 </date> <note> distributed by John on the event of Marohn's tenure.
We present growth studies of InAs nanowires nucleated from
lithographically positioned Au seeds on InAs (111)B substrates. The
nanowires are grown in a chemical beam epitaxy system and exhibit high
aspect ratios and high homogeneity in length and width. Investigations of
wire growth rate as a function of diameter, density, and time were
performed and the results indicate that 80% of the growth is due to In
species diffusing from the (111)B substrate surface. Furthermore, we have
established that the diffusion length on the 110 wire side surfaces
exceeds 10 um. We also observe a decreasing length growth rate with
increasing wire diameter. </note> <group> cantilever </group> <group1>
fabrication </group1> <group2> </group2> <group3> </group3> </p><p>
<name> Martensson200409 </name> <date> 200409 </date> <note> nanowires on
silicon in an ACS article that John combined with publications about
high-Q cavities and novel read out configurations for a patent he asked me
to witness </note> <group> nano </group> <group1> cantilever </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Reinhardt200409
</name> <date> 200409 </date> <note> JAMA, The Swiss health system,
regulated competition without managed care, sent to me by John following a
series of posts he made on the surfer.org website about health care in the
UW </note> <group> health </group> <group1> models </group1> <group2>
Princeton University </group2> <group3> </group3> </p><p> <name>
Sazonova200409 </name> <date> 200409 </date> <note> Nature, with McEuen at
Cornell, a tunable carbon nanotube electromechanical oscillator </note>
<group> nanotube </group> <group1> oscillator </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Steen200409 </name> <date> 200409
</date> <note> Nature reviews, the abc's (and xyz's) of peptide sequencing
</note> <group> peptide </group> <group1> biology </group1> <group2>
</group2> <group3> </group3> </p><p> <name> Wang200409 </name> <date>
200409 </date> <note> receiving and transmitting light-like radio waves:
antenna effect in arrays of aligned carbon nanotubes </note> <group>
nanotube </group> <group1> receivers </group1> <group2> Boston College
</group2> <group3> </group3> </p><p> <name> Armour200410 </name> <date>
200410 </date> <note> Phys Rev B, The current noise spectrum of a
single-electron transistor (SET) coupled to a nanomechanical resonator is
calculated in the classical regime. Correlations between the charge on the
SET island and the position of the resonator give rise to a distinctive
noise spectrum which can be very different from that of the uncoupled SET.
The current noise spectrum of the coupled system contains peaks at both
the frequency of the resonator and double the resonator frequency, as well
as a strong enhancement of the noise at low frequencies. The heights of
the peaks are controlled by the strength of the coupling between the SET
and the resonator, the damping of the resonator, and the temperature of
the system. </note> <group> SET </group> <group1> noise </group1> <group2>
University of Nottingham </group2> <group3> </group3> </p><p> <name>
Horodecki200410 </name> <date> 200410 </date> <note> JAS reference in
email to Christian with the comment, "I reviewed the spin literature, and
found enough enough to demonstrate that efficient spin simulation of these
(smallish) molecules is a recognized "very hard" problem, and hence
well-worthy of NIH support.  E.g., the Horodecki brothers are "gods" of
quantum simulation, and *they* think spin simulation is a hard problem ...
yet interesting enough that they have started to focus on it. </note>
<group> spin </group> <group1> theory </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Papadakis200410 </name> <date> 200410
</date> <note> resonant oscillators with carbon-nanotube torsion springs
</note> <group> nanotube </group> <group1> oscillators </group1> <group2>
</group2> <group3> </group3> </p><p> <name> Vandersypen200410 </name>
<date> 200410 </date> <note> NMR techniques for quantum control and
computation </note> <group> qm </group> <group1> review </group1> <group2>
Delft University </group2> <group3> with Chuang </group3> </p><p> <name>
Venkataramani200410 </name> <date> 200410 </date> <note> strong coupling
of nonlinear electronic and biological oscillators: reaching the
`amplitude death' regime </note> <group> oscillator </group> <group1>
coupling </group1> <group2> Brown University </group2> <group3> </group3>
</p><p> <name> Alicki200411 </name> <date> 200411 </date> <note>
preprint, The fundamental challenge to quantum information processing is a
devastating influence of decoherence processes due to the interaction of a
quantum device with environment. It is rather generally believed that, at
least in principle, by suitable active procedures of quantum error
correction this problem can be solved if the level of noise is lower then
a certain threshold. The aim of this note is to show that, unfortunately,
the success of existing error correction procedures is due to the discrete
in time modelling of quantum evolution. In physical terms discrete models
correspond to unphysical infinitely fast gates. </note> <group> qm
</group> <group1> measurement </group1> <group2> University of Gdansk
</group2> <group3> </group3> </p><p> <name> Blank200411 </name> <date>
200411 </date> <note> esr and nmr at cornell, High resolution electron
spin resonance microscopy, references Chao's MRFM article, "Other
experiments have previously demonstrated better resolution than we
obtained in the present work, through conventional NMR techniques, or by
magnetic resonance force microscopy (MRFM). (Yoshinari 04, Chao 04... MRFM
suffers from low 3D sensitivity, especially when the samples are thicker
than a few microns. Furthermore, it requires extreme physical conditions
(high vacuum and often low temperatures), and complicated sample
preparation.  These collective constraints make MRFM (as well as other
surface scanning methods), at its present stage, unpractical for most
biological and thick sample applications. with Freed </note> <group> esr
</group> <group1> microscopy </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Lagally200411 </name> <date> 200411 </date>
<note> Nature News and Views, The future of electronics may rest on
devices that integrate other semiconductors with silicon. A means of
creating tiny semiconductor pillars on a silicon surface is now
demonstrated - tiny bed of nails </note> <group> nanotech </group>
<group1> cantilevers </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Mabuchi200411 </name> <date> 200411 </date> <note>
proposal, MURI, mailed to John after congratulated and collaboration
suggested - Gas-phase atomic systems provide unique resources for
metrology and precision measurement.  By virtue of their relative internal
simplicity and virtual isolation from bulk matter, dilute samples of
atoms, ions or molecules can exhibit long coherence times that enable
ultra-precise interferometry protocols. They can likewise effectively be
shielded from perturbations, which makes them suitable for use as primary
standards. </note> <group> qm </group> <group1> noise </group1> <group2>
</group2> <group3> </group3> </p><p> <name> Meier200411 </name> <date>
200411 </date> <note> with Awschalom, spin-photon dynamics of quantum dots
in two-mode cavities described by a Jaynes-Cummings model </note> <group>
spin </group> <group1> cavities </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Ollivier200411 </name> <date> 200411 </date>
<note> with Zurek, Objective Properties from Subjective Quantum States:
Environment as a Witness </note> <group> qm </group> <group1> observation
</group1> <group2> </group2> <group3> </group3> </p><p> <name>
Pinnaduwage200411 </name> <date> 200411 </date> <note> Rev Sci Instr, A
sensitive, handheld vapor sensor based on microcantilevers </note> <group>
cantilever </group> <group1> sensor </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Rabl200411 </name> <date> 200411 </date> <note>
Zoller, generation of squeezed states of nanomechanical resonators by
reservoir engineering </note> <group> qm </group> <group1> resonators
</group1> <group2> </group2> <group3> </group3> </p><p> <name>
Sornborger200411 </name> <date> 200411 </date> <note> with Cleland,
superconducting phase qubit coupled to a nanomechanical resonator: beyond
the rotating-wave approximation </note> <group> cavity </group> <group1>
resonator </group1> <group2> </group2> <group3> </group3> </p><p> <name>
Sousa200411 </name> <date> 200411 </date> <note> with Das Sarma, silicon
quantum computation based on magnetic dipolar coupling </note> <group> qm
</group> <group1> computing </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Aliferis200412 </name> <date> 200412 </date>
<note> Phys Rev A, The ability to perform a universal set of quantum
operations based solely on static resources and measurements presents us
with a striking viewpoint for thinking about quantum computation and its
powers. We consider the two major models for doing quantum computation by
measurements that have hitherto appeared in the literature and show that
they are conceptually closely related by demonstrating a systematic local
mapping between them. This way we effectively unify the two models,
showing that they make use of interchangeable primitives. With the tools
developed for this mapping, we then construct more resourceeffective
methods for performing computation within both models and propose schemes
for the construction of arbitrary graph states employing two qubit
measurements alone. </note> <group> qm </group> <group1> measurement
</group1> <group2> Caltech </group2> <group3> with Leung </group3>
</p><p> <name> Caron200412 </name> <date> 200412 </date> <note> Using
scanning probe techniques, surface properties such as shear stiffness and
friction can be measured with a resolution in the nanometer range. The
torsional deflection or buckling of atomic force microscope cantilevers
has previously been used in order to measure the lateral forces acting on
the tip. This letter shows that the flexural vibration modes of
cantilevers oscillating in their width direction parallel to the sample
surface can also be used for imaging. These lateral cantilever modes
exhibit vertical deflection amplitudes if the cantilever is asymmetric in
thickness direction, e.g., by a trapezoidal cross section. </note> <group>
cantilever </group> <group1> bending </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Chiaverini200412 </name> <date> 200412 </date>
<note> with Wineland, Scalable quantum computation1 and communication
require error control to protect quantum information against unavoidable
noise. Quantum error correction protects information stored in two-level
quantum systems (qubits) by rectifying errors with operations conditioned
on the measurement outcomes.  Error-correction protocols have been
implemented in nuclear magnetic resonance experiments, but the inherent
limitations of this technique prevent its application to quantum
information processing. Here we experimentally demonstrate quantum error
correction using three beryllium atomic-ion qubits confined to a linear,
multi-zone trap. An encoded one-qubit state is protected against spin-flip
errors by means of a three-qubit quantum error-correcting code. A primary
ion qubit is prepared in an initial state, which is then encoded into an
entangled state of three physical qubits (the primary and two ancilla
qubits).Errors are induced simultaneously in all qubits at various
rates.The encoded state is decoded back to the primary ion one-qubit
state, making error information available on the ancilla ions, which are
separated from the primary ion and measured. Finally,the primary qubit
state is corrected on the basis of the ancillae measurement outcome.  We
verify error correction by comparingthe corrected final state to the
uncorrected state and to the initial state. In principle, the approach
enables a quantum state to be maintained by means of repeated error
correction, an importantstep towards scalable fault-tolerant quantum
computation using trapped ions. </note> <group> qm </group> <group1> error
</group1> <group2> </group2> <group3> </group3> </p><p> <name>
Hafizovic200412 </name> <date> 200412 </date> <note> stand-alone
single-chip (7-10 mm) atomic force microscopy unit including a fully
integrated array of cantilevers, each of which has an individual
actuation, detection, and control unit so that standard atomic force
microscopy operations can be performed by means of the chip only without
any external controller. using labVIEW and getting 1nm force resolution
</note> <group> afm </group> <group1> design </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Hinnen200412 </name> <date> 200412
</date> <note> with Delft University, The application of initial state
correction in iterative learning control and the experimental validation
on a piezoelectric tube scanner </note> <group> piezo </group> <group1>
control </group1> <group2> Delft University of Technology </group2>
<group3> </group3> </p><p> <name> Hohberger200412 </name> <date> 200412
</date> <note> Here we report direct experimental evidence for passive (or
intrinsic) optical cooling of a micromechanical resonator. We exploit
cavity-induced photothermal pressure to quench the brownian vibrational
fluctuations of a gold-coated silicon microlever from room temperature
down to an effective temperature of 18 K. Extending this method to
optical-cavity-induced radiation pressure might enable the quantum limit
to be attained, opening the way for experimental investigations of
macroscopic quantum superposition states involving numbers of atoms of the
order of 10^14 </note> <group> cantilever </group> <group1> cooling
</group1> <group2> </group2> <group3> </group3> </p><p> <name>
Kippenberg200412 </name> <date> 200412 </date> <note> Demonstration of
ultra-high-Q small mode volume toroid microcavities on a chip at IBM and
Caltech </note> <group> cavity </group> <group1> quality </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Matsen200412 </name>
<date> 200412 </date> <note> Traditional language learning theory explores
an idealized interaction between a teacher and a learner. The teacher
provides sentences from a language, while the learner has to infer the
underlying grammar. Here, we study a new approach by considering a
population of individuals that learn from each other. There is no
designated teacher. We are inspired by the observation that children grow
up to speak the language of their peers, not of their parents. Our goal is
to characterize learning strategies that generate ÔÔlinguistic
coherence,ÕÕ which means that most individuals use the same language. We
model the resulting learning dynamics as a random walk of a population on
a graph. Each vertex represents a candidate language. We find that a
simple strategy using a certain aspiration level with the principle of
winÐstay, loseÐshift does extremely well: stay with your current language,
if at least three others use that language; otherwise, shift to an
adjacent language on the graph. This strategy guarantees linguistic
coherence on all nearly regular graphs, in the relevant limit where the
number of candidate languages is much greater than the population size.
Moreover, for many graphs, it is sufficient to have an aspiration level
demanding only two other individuals to use the same language. </note>
<group> language </group> <group1> theory </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Milonni200412 </name> <date> 200412
</date> <note> Nature News and View, about Hohburger Metzger and Karrai,
New work shows how light might be used to cool a micrometre-size
cantilevered mirror to the low temperatures required in physics
experiments and applications. </note> <group> cantilever </group> <group1>
heat </group1> <group2> </group2> <group3> </group3> </p><p> <name>
Peano200412 </name> <date> 200412 </date> <note> We investigate the
nonlinear response of a vibrating suspended nanomechanical beam on
external periodic driving. The amplitude of the fundamental transverse
mode behaves like a weakly damped quantum particle in a driven anharmonic
potential. Upon using a Born-Markovian master equation, we calculate the
fundamental mode amplitude for varying driving frequencies. In the
nonlinear regime, we observe resonances which are absent in the
corresponding classical model. They are shown to be associated with
resonant multiphonon excitations. Furthermore, we identify resonant
tunneling in a dynamically induced bistable effective potential. </note>
<group> qm </group> <group1> oscillators </group1> <group2> </group2>
<group3> </group3> </p><p> <name> Santamore200412 </name> <date> 200412
</date> <note> with Goan and Milburn, Anharmonic effects on a
phonon-number measurement of a quantum-mesoscopic-mechanical oscillator
</note> <group> oscillator </group> <group1> measurement </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Schwindt200412
</name> <date> 200412 </date> <note> with Moreland, Chip-scale atomic
magnetometer </note> <group> magnetic </group> <group1> sensor </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Srinivasan200412
</name> <date> 200412 </date> <note> optical loss and lasing
characteristics of high-quality factor AlFaAs microdisk resonators with
embedded quantum dots - included in Sidles' invention disclosure for
resonator properties of exotic cantilevers </note> <group> microdisk
</group> <group1> resonators </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Steane200412 </name> <date> 200412 </date>
<note> Nature, news and views, quantum errors corrected - almost the only
thing a quantum computer would need to do if it is to work properly now
implemented in a laboratory experiment by Cheaverini </note> <group> error
</group> <group1> correction </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Tropp200412 </name> <date> 200412 </date> <note>
image brightening in samples of high dielectric constant </note> <group>
image </group> <group1> dielectric </group1> <group2> GE </group2>
<group3> </group3> </p><p> <name> Berman200501 </name> <date> 200501
</date> <note> Quantum logic operations and creation of entanglement in a
scalable superconducting quantum computer with long-range constant
interaction between qubits </note> <group> squid </group> <group1> qm
</group1> <group2> </group2> <group3> </group3> </p><p> <name> Cho200501
</name> <date> 200501 </date> <note> with McKenzie, We theoretically study
thermal transport in an electronic interferometer comprising a parallel
circuit of two quantum dots, each of which has a tunable single electronic
state which are connected to two leads at different temperature.  As a
result of quantum interference, the heat current through one of the dots
is in the opposite direction to the temperature gradient. An excess heat
current flows through the other dot. Although locally, heat flows from
cold to hot, globally the second law of thermodynamics is not violated
because the entropy current associated with heat transfer through the
whole device is still positive. The temperature gradient also induces a
circulating electrical current, which makes the interferometer
magnetically polarized. </note> <group> spintronics </group> <group1>
interferometer </group1> <group2> </group2> <group3> </group3> </p><p>
<name> Coey200501 </name> <date> 200501 </date> <note> Nature Materials
news and views article on tunnel junctions as the building block for
spintronics, has a graph on scalar accomplishments that looks a lot like
the ones that John draws for MRFM, and it says MRAM will commercially
debut next year </note> <group> spintronics </group> <group1> junctions
</group1> <group2> </group2> <group3> </group3> </p><p> <name>
Covington200501 </name> <date> 200501 </date> <note> Science perspective
on Krivorotov's experiments for spintronics </note> <group> spintronics
</group> <group1> review </group1> <group2> </group2> <group3> </group3>
</p><p> <name> Gaidarzhy200501 </name> <date> 200501 </date> <note>
Evidence for Quantized Displacement in Macroscopic Nanomechanical
Oscillators </note> <group> qm </group> <group1> oscillators </group1>
<group2> Boston University </group2> <group3> references Rugar </group3>
</p><p> <name> Hammes200501 </name> <date> 200501 </date> <note> with
National Defense University, Insurgency: Modern Warfare Evolves into a
Fourth Generation </note> <group> insurgency </group> <group1> strategy
</group1> <group2> National Defense University </group2> <group3>
</group3> </p><p> <name> Krivorotov200501 </name> <date> 200501 </date>
<note> Science article, We present time-resolved measurements of
gigahertz-scale magnetic dynamics caused by torque from a spin-polarized
current. By working in the time domain, we determined the motion of the
magnetic moment throughout the process of spin-transferÐdriven switching,
and we measured turn-on times of steady-state precessional modes.
Time-resolved studies of magnetic relaxation allow for the direct
measurement of magnetic damping in a nanomagnet and prove that this
damping can be controlled electrically using spin-polarized currents.
</note> <group> spintronics </group> <group1> torque </group1> <group2>
</group2> <group3> </group3> </p><p> <name> Sharma200501 </name> <date>
200501 </date> <note> Science Perspectives, how to create a spin current -
good intro for spintronics </note> <group> spintronic </group> <group1>
intro </group1> <group2> </group2> <group3> </group3> </p><p> <name>
Sonnaillon200501 </name> <date> 200501 </date> <note> Rev Sci Inst, a
low-cost high-performance, digital signal processor-based lock-in
amplifier capable of measuring multiple frequency sweeps simultaneously
</note> <group> dsp </group> <group1> amplifiers </group1> <group2>
</group2> <group3> </group3> </p><p> <name> Wang200501 </name> <date>
200501 </date> <note> JAS reference in email to Christian, "Chris, it is a
very good sign when big cheeses like the Horodecki's start working in an
area.  And the Chinese (who also have begun working hard in this area)
think that even one-dimensional (linear chain) molecules are hard to
solve."  entanglement in spin-one Heisenberg chains, using the concept of
negativity in bilinear and biquadratic chains, up to four spins with
two-spin bilinear results presented. </note> <group> spin </group>
<group1> theory </group1> <group2> </group2> <group3> </group3> </p><p>
<name> WrightAC200501 </name> <date> 200501 </date> <note> use of a
Joule-Thomson micro-refrigerator to cool a radio-frequency coil for
magnetic resonance microscopy </note> <group> rf </group> <group1>
temperature </group1> <group2> University of Pennsylvania, Dept of
Radiology, also Elliott from Dept of Orthopaedic Surgery </group2>
<group3> </group3> </p><p> <name> ZhangXR200501 </name> <date> 200501
</date> <note> laser bending for high-precision curvature adjustment of
microcantilevers </note> <group> cantilever </group> <group1> sensors
</group1> <group2> Purdue University </group2> <group3> </group3> </p><p>
<name> Cohen200502 </name> <date> 200502 </date> <note> MRFM interest,
exchanged email, Method for trapping and manipulating nanoscale objects in
solution </note> <group> nano </group> <group1> positioning </group1>
<group2> </group2> <group3> </group3> </p><p> <name> Hoogenboom200502
</name> <date> 200502 </date> <note> A Fabry-Perot interferometer for
micrometer-sized cantilevers - group is Switzerland, not the Rast group as
Basel, but with IBM and they cite Rugar's work </note> <group> cantilever
</group> <group1> interferometry </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Leggett200502 </name> <date> 200502 </date>
<note> Science Viewpoint The Quantum Measurement Problem - Leggett argues
that semantics and poor logic are responsiblt for the pseudoparadox of QM,
choosing option B that QM predicts the world but does not describe or
explain it </note> <group> qm </group> <group1> history </group1> <group2>
</group2> <group3> </group3> </p><p> <name> Page200502 </name> <date>
200502 </date> <note> In the Joint Center for Structural Genomics,
one-dimensional (1D) 1H NMR spectroscopy is routinely used to characterize
the folded state of protein targets and, thus, serves to guide subsequent
crystallization efforts and to identify proteins for NMR structure
determination. Here, we describe 1D 1H NMR screening of a group of 79
mouse homologue proteins, which correlates the NMR data with the outcome
of subsequent crystallization experiments and crystallographic structure
determination. Based on the 1D 1H NMR spectra, the proteins are classified
into four groups, ÔÔAÕÕ to ÔÔD.ÕÕ A-type proteins are candidates for
structure determination by NMR or crystallography; ÔÔBÕÕ-type are
earmarked for crystallography; ÔÔCÕÕ indicates folded globular proteins
with broadened line shapes; and ÔÔDÕÕ are nonglobular, ÔÔunfoldedÕÕ
polypeptides. The results obtained from coarse- and fine-screen
crystallization trials imply that only A- and B-type proteins should be
used for extensive crystallization trials in the future, with C and D
proteins subjected only to coarse-screen crystallization trials. Of the
presently studied 79 soluble protein targets, 63% yielded A- or B-quality
1D 1H NMR spectra. Although similar yields of crystallization hits were
obtained for all four groups, A to D, crystals from A- and B-type proteins
diffracted on average to significantly higher resolution than crystals
produced from C- or D-type proteins. Furthermore, the output of refined
crystal structures from this test set of proteins was 4-fold higher for A-
and B-type than for C- and D- type proteins. structure determination
pipelines (11Ð13) to obtain extensive structural coverage of a bacterial
(Thermotoga maritima) and a eukaryotic (Mus musculus) proteome. The first
pipeline used a multitier approach to process the ORFs in the T. maritima
proteome (12). All targets were investigated by using novel
high-throughput expression, purification, and nanocrystallization
technologies, which so far yielded 3D structures of 100 proteins by using
x-ray crystallography or NMR spectroscopy in solution. </note> <group>
crystal </group> <group1> nmr </group1> <group2> </group2> <group3>
</group3> </p><p> <name> Recati200502 </name> <date> 200502 </date>
<note> with Zoller, atomic quantum dots coupled to a reservoir of a
superfluid Bose-Einstein Condensate </note> <group> qm </group> <group1>
theory </group1> <group2> </group2> <group3> </group3> </p><p> <name>
Sonnaillon200502 </name> <date> 200502 </date> <note> A low-cost,
high-performance, digital signal processor-based lock-in amplifier capable
of measuring multiple frequency sweeps simultaneously - added because I
thought anyone building a lock-in had to know how they work, and it looks
useful for that reason alone </note> <group> dsp </group> <group1> lock-in
</group1> <group2> </group2> <group3> </group3> </p><p> <name>
Akiyama200503 </name> <date> 200503 </date> <note> Rev Sci Inst,
Development of a metal-tip cantilever for noncontact atomic force
microscopy </note> <group> cantilever </group> <group1> fabrication
</group1> <group2> University of Tokyo, Tohoku University, JSTC </group2>
<group3> references Yamamoto </group3> </p><p> <name>
Bandyopadhyaya200503 </name> <date> 200503 </date> <note> Appl Phys Lett,
Are spin junction transistors suitable for signal processing? the answer,
they say, is no, while FET's and spin analogs might be useful for their
unique properties, they're commercial counterparts are equivalent for dsp
</note> <group> spintronic </group> <group1> readout </group1> <group2>
Virginia Commonwealth University </group2> <group3> </group3> </p><p>
<name> Bargatin200503 </name> <date> 200503 </date> <note> Sensitive
detection of nanomechanical motion using piezoresistive signal downmixing,
We have developed a method of measuring rf-range resonance properties of
nanoelectromechanical systems sNEMSd with integrated piezoresistive strain
detectors serving as signal downmixers. The technique takes advantage of
the high strain sensitivity of semiconductor-based piezoresistors, while
overcoming the problem of rf signal attenuation due to a high source
impedance. Our technique also greatly reduces the effect of the cross-talk
between the detector and actuator circuits. We achieve thermomechanical
noise detection of cantilever resonance modes up to 71 MHz at room
temperature, demonstrating that downmixed piezoresistive signal detection
is a viable high-sensitivity method of displacement detection in
high-frequency NEMS. </note> <group> dsp </group> <group1> cantilevers
</group1> <group2> Caltech University </group2> <group3> with Roukes
</group3> </p><p> <name> Corbitt200503 </name> <date> 200503 </date>
<note> Mathematical framework for simulation of quantum fields in complex
interferometers using the two-photon formalism </note> <group>
interferometer </group> <group1> control </group1> <group2> MIT, LIGO
</group2> <group3> with Chen </group3> </p><p> <name> Geller200503
</name> <date> 200503 </date> <note> superconducting qubits coupled to
nanoelectromechanical resonators: an architecture for solid-state
quantum-information processing integrating GHz-frequency nanomechanical
resonators with Josephson tunnel junctions </note> <group> qm </group>
<group1> resonators </group1> <group2> University of Georgia </group2>
<group3> with Cleland </group3> </p><p> <name> Hansis200503 </name>
<date> 200503 </date> <note> with FOCUS center, Michigan, Simple
pressure-tuned Fabry-Perot interferometer </note> <group> fabry-perot
</group> <group1> interferometer </group1> <group2> University of
Michigan, FOCUS Center </group2> <group3> </group3> </p><p> <name>
Knill200503 </name> <date> 200503 </date> <note> Nature, articles, quantum
computing with realistically noisy devices </note> <group> qm </group>
<group1> noise </group1> <group2> </group2> <group3> </group3> </p><p>
<name> Meier200503 </name> <date> 200503 </date> <note> reduced visibility
of Rabi oscillations in superconducting qubits </note> <group> spin
</group> <group1> coupling </group1> <group2> UCSB, University of Basel
</group2> <group3> with Loss </group3> </p><p> <name> Tomlin200503
</name> <date> 200503 </date> <note> PNAS, commentary, understanding
biology by reverse engineering the control </note> <group> biology
</group> <group1> engineering </group1> <group2> Stanford University
</group2> <group3> </group3> </p><p> <name> Yang_S200503 </name> <date>
200503 </date> <note> Rev Sci Inst, micromachined force sensors for the
study of cell mechanics, mostly AFM and large images, but an interesting
configuration of cantilever beams fabricated by the SCREAM process used to
measure stretching and force </note> <group> cantilever </group> <group1>
design </group1> <group2> University of Illinois at Urbana-Champaign
</group2> <group3> </group3> </p><p> <name> Aldridge200504 </name> <date>
200504 </date> <note> Noise-enabled precision measurements of a duffing
nanomechanical resonator </note> <group> oscillator </group> <group1>
noise </group1> <group2> UCSB </group2> <group3> with Cleland </group3>
</p><p> <name> Burnett200504 </name> <date> 200504 </date> <note> the
evolving field of biodefence: therapeutic developments and diagnostics
</note> <group> biology </group> <group1> control </group1> <group2> NCI
</group2> <group3> </group3> </p><p> <name> Clark200504 </name> <date>
200504 </date> <note> Cooling of bulk material by electron-tunneling
refrigerators </note> <group> cryo </group> <group1> instrument </group1>
<group2> NIST, University of Notre Dame, Ball Aerospace and Technologies
</group2> <group3> </group3> </p><p> <name> Fukuma200504 </name> <date>
200504 </date> <note> Development of low noise cantilever deflection
sensor for multienvironment frequency-modulation atomic force microscopy
</note> <group> interferometer </group> <group1> detection </group1>
<group2> Kyoto University </group2> <group3> </group3> </p><p> <name>
Hassibi200504 </name> <date> 200504 </date> <note> Biological shot-noise
and quantum-limited signal-to-noise ratio in affinity-based biosensors
</note> <group> snr </group> <group1> biology </group1> <group2> Stanford
University </group2> <group3> </group3> </p><p> <name> Kovalev200504
</name> <date> 200504 </date> <note> Nanomechanical magnetization reversal
- thin magnetic films coupling frequencies solved in equations with
accelerated switching via the lattice </note> <group> spintronics </group>
<group1> theory </group1> <group2> Delft University, Kavli Institute, The
Netherlands </group2> <group3> references Rugar </group3> </p><p> <name>
LeRoy200504 </name> <date> 200504 </date> <note> imaging electron
interferometer </note> <group> spintronic </group> <group1> imaging
</group1> <group2> Harvard University, MIT, UCSB, Kavli Institute, and
Delft University </group2> <group3> with NSF QUEST </group3> </p><p>
<name> Swenson200504 </name> <date> 200504 </date> <note> Mixing with the
radio frequency single-electron transistor </note> <group> SET </group>
<group1> mixing </group1> <group2> UCSB </group2> <group3> with Cleland
</group3> </p><p> <name> WangWH200504 </name> <date> 200504 </date>
<note> static and dynamic spectroscopy of (Al,Ga)As/GaAs microdisk lasers
with interface fluctuation quantum dots with a Q factor of 5600 </note>
<group> cavity </group> <group1> q </group1> <group2> Penn State
University </group2> <group3> with Awschalom </group3> </p><p> <name>
Bao200505 </name> <date> 200505 </date> <note> A general approach to
synthesis of nanoparticles with controlled morphologies and magnetic
properties </note> <group> sample </group> <group1> magnetic </group1>
<group2> University of Washington </group2> <group3> </group3> </p><p>
<name> Chao200505 </name> <date> 200505 </date> <note> Rev Sci Inst,
Scanning homodyne interferometer for characterization of piezoelectric
films and microelectromechanical systems devices </note> <group> MEMS
</group> <group1> interferometer </group1> <group2> Nanyang Technological
University </group2> <group3> </group3> </p><p> <name> Ekinci200505
</name> <date> 200505 </date> <note> Nanoelectromechanical systems </note>
<group> NEMS </group> <group1> review </group1> <group2> Boston
University, Caltech </group2> <group3> with Roukes </group3> </p><p>
<name> Fisher200505 </name> <date> 200505 </date> <note> Three-dimensional
force microscope: A nanometric optical tracking and magnetic manipulation
system for the biomedical sciences </note> <group> magnetic </group>
<group1> microscopy </group1> <group2> UNC, Chapel Hill </group2> <group3>
with Superfine </group3> </p><p> <name> Hanson200505 </name> <date>
200505 </date> <note> Single-shot readout of electron spin states in a
quantum dot using spin-dependent tunnel rates </note> <group> qm </group>
<group1> readout </group1> <group2> Delft University, Kavli Institute, The
Netherlands </group2> <group3> with Vandersypen </group3> </p><p> <name>
Ilic200505 </name> <date> 200505 </date> <note> We report a method of
optical excitation of nanomechanical cantilever-type oscillators. The
periodic driving signal with a controlled modulation amplitude was
provided by a 415 nm diode laser, wherein the laser spot was located at
some distance away from the clamped end of the cantilever. The measured
resonant response of the cantilever was obtained at distances in excess of
160 um with varying oscillator dimensions. The effectiveness of the
driving mode is studied for different combinations of materials, namely
SiÐSiO2 and Si3N4ÐSiO2. These observations were considered within the
theoretical framework of the mechanism of heat transfer. We show that
measurable amplitudes of vibrations can be obtained at temperature changes
much less than 1 degree </note> <group> oscillators </group> <group1>
optics </group1> <group2> Cornell University </group2> <group3> with
Craighead </group3> </p><p> <name> Jeong200505 </name> <date> 200505
</date> <note> Direct force measurements of biomolecular interactions by
nanomechanical force guage </note> <group> cantilever </group> <group1>
sensor </group1> <group2> UC Berkeley, MEMS Precision Instruments,
Berkeley Sensor and Actuator Center </group2> <group3> </group3> </p><p>
<name> Meyer200505 </name> <date> 200505 </date> <note> Rev Sci Inst,
Slip-stick step-scanner for scanning probe microscopy </note> <group>
actuator </group> <group1> scanner </group1> <group2>
Ludwig-Maximilians-Universitat, Attocube Systems </group2> <group3>
</group3> </p><p> <name> Muller200505 </name> <date> 200505 </date>
<note> Microscopic Evidence for spatially inhomogeneous charge trapping in
Pentacene </note> <group> transistor </group> <group1> materials </group1>
<group2> Cornell University </group2> <group3> with Marohn </group3>
</p><p> <name> Muller200505a </name> <date> 200505 </date> <note> Cover
story picture in Advanced Materials for M </note> <group> cover </group>
<group1> picture </group1> <group2> Cornell University </group2> <group3>
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</reference>
