Michael
Matthew John TREACY
Home Address: 140
West Courtney Lane, Phone:
(480) 598-9021
Tempe,
Arizona 85284-3911. email:
mike_treacy@me.com
Date & Place of
Birth: 13th
October 1954 Londonderry,
N. Ireland
Nationality: Dual
citizenship. United Kingdom; Naturalized United States Citizen
Cambridge
University, St Johns College, U.K.
1980 Ph.D.
(Cavendish Laboratory). Thesis Title: Electron Microscopy of Palladium and
Platinum Catalysts. Supervisor, Dr. A. Howie.
1976 B.A.
Hons. 2.1 Natural Sciences (Theoretical and Experimental Physics).
Dissertation: Dynamics of the Earth–Moon System. Supervisor, Prof. A.
H. Cook.
St. Johns College, Southsea, U.K.
1973 3 A levels (three
grade A passes), Distinctions in Physics and Mathematics.
1971 10 O levels (six grade 1 passes).
6/2003–present Professor,
Department of Physics
Arizona
State University, AZ, USA
10/1990–11/2002 Senior
Research Scientist
NEC
Research Institute, Inc., Princeton, N.J., USA
9/1984–10/1990 Staff
Physicist Exxon
Research & Engineering Co, Corporate Research, N.J., USA
9/1982–8/1984 Senior
Physicist
Exxon
Chemical Company, Aromatics Technology Division, N.J., USA
4/1981–8/1982 Ingnieur
(Grade II) Centre
National dEtudes des Tlcommunications, Bagneux, Paris
1/1980–3/1981 IBM
World Trade Post–Doctoral Position, IBM
Thomas J. Watson Research Center, Yorktown Heights, N.Y., USA
Co–Organizer
of the Materials Research Society Symposium on Microstructure and Properties
of Catalysts Editor Proceedings,
Vol. No. 111. (12/1987)
Meeting
Chair 1991 Materials Research Society Fall meeting, with M. Yoo (Oak Ridge)
& J. Phillips (Bell Labs).
Treasurer,
Editor, Executive Committee, 9th International Zeolite Conference, Montral,
6/1992.
Chairman
of the Structure Commission of the International Zeolite Association, (7/2001
– present).
Member
of the Council of the International Zeolite Association (1998–2004).
Member
(retired) of the Steering Committee of the National Center for Electron
Microscopy (1989–1994).
Treasurer,
Editor, Executive Committee, for the 12th International Zeolite Conference,
Baltimore, 6/1998.
Meeting
Chair of Gordon Research Conference on Zeolites and Layered Clays 6/2002.
Co-organizer
of NSF Workshop on In-situ Microscopy of
the nano-World, Tempe, AZ, 1/2006.
Organizer
of workshop on Design and Synthesis of
New Materials, Santa Barbara, Aug 1-2, 2008.
Personnel
Committee for Department of Physics, Fall 2004 – spring 2006.
Budget
& Policy Committee for Department of Physics, fall 2006 – spring 2009.
Colloquium
Committee for Department of Physics, fall 2003 – present.
Chair
of the Physics Colloquium Committee, spring 2005 – fall 2008.
Director of the Undergraduate Physics
Program at Arizona State University, fall 2004 – present.
Wright Award 1974. Awarded by St. Johns College
Cambridge, for academic excellence.
Best Biological
Poster at the 1995 Microscopy
Society of America conference (best out of 160).
Barrer Award 1990. Awarded triennially by the Royal
Society of Chemistry to a young scientist under age 36, for distinguished work
in the area of zeolites.
Donald W. Breck
Award 1996. Awarded
triennially by the International Zeolite Association for the most significant
contribution to molecular sieve science and technology during that 3-year
period – for elucidating fault structures in FAU/EMT zeolites.
Elected Fellow of
the American Physical Society, Nov 2004, For the development
of novel electron microscopy techniques and applications to advanced materials
including catalysts, zeolites, carbon nanotubes and disordered structures.
Outstanding
Teacher 2006–2007.
Awarded by the Department of Physics at Arizona State University based on
nominations by students and faculty.
Distinguished
Teaching Award 2007–2008
in honor of Zebulon Pearce. Presented by the College of Liberal Arts and
Sciences at Arizona State University based on nominations by students and faculty.
Nominee for Professor
of the Year at ASU, spring 2009.
Leverhulme
Professorship at the
University of Oxford, Department of Materials, UK. Sabbatical leave, Aug 2009
– July 2010.
(1)
June
1998, Invited lecture on The Basics of Crystal Symmetry at U. Illinois, Dept
of Materials Science, given to graduate students.
(2)
(2001-2004) Reach
For The Stars. Astronomy coach for two students at Plainsboro, New Jersey, Middle
School. They competed in the New Jersey qualifying tournament and the
National Science Olympiad in 2002 (came 19th) and 2003 (came 10th).
In 2004, the same team came first, although I did not coach them for that full
year because I had moved to Arizona.
(3)
Fall 2003. PHY132 at ASU. Taught laboratory class on Electricity
& Magnetism. Acting T.A. to John Spence. (24 students)
(4)
Fall 2003. PHY241. Substitute lecturer for Prof. D. J. Smith. 2
lectures. (About 70 students.)
(5)
Spring 2004. PHY241 at ASU. Lecture course. 4550-minute lectures on Thermodynamics, Optics and Modern Physics.
(72 students.)
(6)
Guest Lecture (75 minutes) for course on Nanomaterials organized
by Profs. T. Picraux and D. J. Smith. Lecture Title was Synchrotron X-ray and
Neutron Scattering. (About 35 students)
(7)
Fall 2004. PHY241 at ASU. Lecture course. 4550-minute lectures on
Thermodynamics, Optics and Modern Physics. Did all of the quiz and exam grading
myself. (78 students.)
(8)
ASU Winter School on High Resolution Electron Microscopy. Lecture
on Imaging Theory 1, and lab. classes (Jan 2005). (About 60 students)
(9)
Spring 2005. PHY241 at ASU. Lecture course. 4550-minute lectures on Thermodynamics, Optics and Modern Physics.
(71 students.)
(10) Fall 2005
PHY521 at ASU. Classical Mechanics. Taught at the graduate level, based on the
Goldstein textbook. 2675-minute
lectures. (17 graduate students)
(11) Fall 2005.
PHY241 at ASU. Substitute lecturer for Prof. D. J. Smith. 4 lectures. (About 70
students.)
(12) ASU Winter
School on High Resolution Electron Microscopy. Lecture on Imaging
Theory 1, and lab. classes (Jan 2006). (About 45 students.)
(13) Spring 2006.
PHY241 at ASU. Lecture course. 4550-minute
lectures on Thermodynamics, Optics and Modern Physics. (68 students.)
(14) Spring 2006,
PHY 541 (Surface Science) at ASU. Guest Lecture on Catalysis. (15 students.)
(15) Fall 2006.
PHY521 at ASU. Classical Mechanics. Taught at the graduate level, based on the
Goldstein textbook. 2675-minute
lectures. (27 graduate students.)
(16) Fall 2006.
PHY 310 at ASU. Stood in for Professor McCartney to give 3 lectures. (~30
students)
(17) Spring 2007.
PHY241 at ASU. Lecture course. 4550-minute
lectures on Thermodynamics, Optics and Modern Physics. (72 students.)
(18) Fall 2007.
PHY521 at ASU. Classical and Continuum Mechanics. Taught at the graduate level,
based on the Goldstein textbook. Additional material on fluids and chaos. 2675-minute lectures. (23 graduate students.)
(19) ASU Winter
School on High Resolution Electron Microscopy. Two lectures on Imaging Theory 1
& II, and (Jan 2008). (About 70 students.)
(20)
Spring 2008. PHY252 at ASU. Lecture and lab course. 26110-minute lectures on Waves, Fluids, Thermodynamics and Optics.
12110-minute lab classes. (42
students.)
(21)
Fall 2008, PHY 521 at ASU. Classical and Continuum Mechanics.
Taught at the graduate level, based on the Goldstein textbook. 2675-minute lectures. (23 graduate students.)
(22)
Spring 2009, PHY 252 at ASU. Lecture and lab course. 26110-minute lectures on Waves, Fluids, Thermodynamics and Optics.
12110-minute lab classes. (33
students.)
(23)
Spring
2009, PHY 311 at ASU. Stood in for Prof. Barry Ritchie for 1 lecture.
NSF GOALI award DMR 00-74273,
co-Principal Investigator with P. J. Keblinski at Rensselaer Polytechnic,
supporting students R. Kishora-Dash and Juyin Cheng. Structure
of Amorphous Materials by Fluctuation Microscopy and Atomic-level Simulation.
5/2004 – 5/2008, $240,000.
Argonne National Laboratory
(DOE) AWS-0046, Fluctuation X-ray/Optical Microscopy Studies of
disordered nano-scale and micro-scale assemblies, $267,622.
NSF NER award CTS
0508434, co-PI with R. Sharma and P. Rez, NER: Controlled Synthesis of carbon nanotubes
with desired properties,
7/1/2005 – 6/30/2006, $100,000.
Petroleum
Research Fund, 46779-AC10. $84,000, Zeolite
structure prediction, and the identification of useful synthetic targets, 8/1/07 – 7/31/09.
NSF MRI $3,277,750 Acquisition of an aberration
corrected high resolution analytical transmission electron microscope for
advanced materials research, co-PI with R. Carpenter, S. Mahajan, D. J. Smith,
J. C. H. Spence 10/1/2008 –
9/30/2011.
NSF CDI-type I $255,559 Collaborative Research:
CDI-type I: Discovery and design of new microporous zeolites., PI with I.
Rivin, Temple 9/1/2008 – 8/31/2011.
Santa Barbara International
Center for Materials Research (ICMR), $100,000, with Mike OKeeffe (ASU), to
run a Summer School and Workshop on Materials Design.
UOP/Honeywell $30,000
unrestricted gift, to build a diffraction pattern database of hypothetical
zeolites.
Proposed, and demonstrated, the high-angle annular
detector for STEM Z contrast
My
Ph.D. work was on the development of advanced TEM-based techniques for the
characterization of supported Pt and Pd catalysts. At that time, Crewes Z contrast technique seemed ideal for
detecting high atomic number (Z)
elements such as Pt, on low atomic number supports that are typical of
supported catalysts. I demonstrated that diffraction produced strong contrast
that overwhelmed the Z-contrast
effect in crystals. In collaboration with supervisor A. Howie and L. M. Brown,
I showed that upon increasing the annular detector inner collection angle,
diffraction contrast could be suppressed. This work introduced the
high-angle annular detector in Materials Science. Further, the Z-dependence of the signal improved to Z2 because atomic screening
effects are diminished. (This seemingly simple experiment required time and
some considerable ingenuity to overcome design limitations in the early STEM
instruments.) In later work, I demonstrated single Pt atom sensitivity in
zeolites, with the channels clearly imaged giving us an indication as to the
likely location of Pt atoms in the framework. I also showed that high angle
annular dark field intensities could be used to estimate sub-nanometer particle
sizes reliably. The high-angle annular detector is now a standard tool in
(S)TEM studies of materials.
Identified a new deactivation mechanism in
Pt/K-zeolite L aromatization catalysts
My STEM Z
contrast studies of Pt particles in the one-dimensional channels of zeolite L
revealed that Pt particles agglomerate slowly with reaction time. The particles
remain sufficiently small so that over 90% of the Pt atoms reside on particle
surfaces. However, double-blockages in the zeolite channels effectively entomb
a significant channel volume, and the loss of active Pt can be severe. I
proposed a length-loading criterion for maintaining activity. The
criterion is simple: there should not be enough Pt per channel to form two or
more significant blockages. This hypothesis was confirmed when zeolite L
supports with shorter channel lengths, but identical Pt loading, were tested.
For proprietary reasons this work (1982–1985), which represents the
culmination of my early Z contrast
work, was published only in 1999. I won the prestigious Barrer Award (awarded
triennially by the British Zeolite Association) in 1990 for part of this work.
Demonstrated
the dominant role of elastic relaxation in TEM images of composition-modulated
films
My work at CNET in Paris was on spinodal
decomposition of InGaAsP semi-conductors, which are used as photodiodes in
fiber-optic telecommunications. Electron microscopy revealed pronounced
quasi-periodic image contrasts that were traditionally ascribed to local
composition fluctuations. In collaboration with J. M. Gibson and A. Howie, I
showed that the contrast is primarily due to the bending of lattice planes near
surfaces, which is induced by relaxation of stresses arising from the
modulation in unit cell dimensions as the composition changes. Such bending
produces strong diffraction contrasts. I derived equations for the bending,
which remain useful for studies of strain modulation in all types of modulated
thin films, from superlattices to ferroelectrics. This work also showed how to
convert TEM lattice spacings into a local composition, allowing for the relaxed
tetragonal distortions and their dependence on thickness.
Unraveled the structure of chiral zeolite beta
Synthetic zeolite beta was first reported
by Mobil in the mid 1960s. Its structure remained a mystery for over 20 years.
The presence of planar faults in the sub-micron sized crystallites made it
essentially impossible to solve the structure by conventional
structure-refining methods. Using TEM to extract structure projections and the
symmetry elements, in collaboration with J. M. Newsam, I showed that the structure
comprises intimately intergrown right- and left-handed variants of a chiral
tetragonal framework. (It later transpired that J. B. Higgins at Mobil had
solved the structure 3 years earlier by model-building, but had not been
allowed to publish.) The zeolite beta structure is important because it is a
3-dimensional 12-ring framework, with helical channels running along the
c-axis. Nobody has synthesized the pure right- or left-handed forms yet, but
such a pure end-member structure may have applications in chiral separations.
The methods I used, and the tools I created, in this work have been used by
other researchers for structure determinations of other intergrown zeolite
families.
Invented recursion algorithm for computing
diffraction from faulted crystals – DIFFaX
During
the course of the zeolite beta work, I developed a recursion method of
computing powder x-ray diffraction patterns in the presence of planar faults.
This tool helped provide the crucial evidence supporting our model of zeolite
beta. I am the primary author of the computer program DIFFaX, which has now become a standard tool for simulation of
diffraction in planar-faulted crystals, and has been used widely by other
researchers for over 20 years. I have used it successfully in many projects to
identify fault patterns in layered crystal systems. The Fortran DIFFaX
source code, with manual, is in the public domain.
Characterization of stacking
fault patterns in faujasitic zeolites using TEM and DIFFaX simulations
The
tools I developed for studying zeolite beta where applied to studying the
faulting distributions in the various faujasite-related synthetic zeolites,
ranging from pure cubic FAU framework to the pure hexagonal EMT framework.
Using TEM and DIFFaX, I showed that the faulting in these materials is correlated.
Using the strain relaxation model, I showed that the strains associated with
the stacking faults were reduced when faults were clustered. I won the
prestigious Breck Award (awarded triennially by the International Zeolite Association)
in 1996 for this work.
Combinatorial
computer method for enumerating zeolite frameworks
In collaboration with
computer scientists K. Randall and S. Rao, I built a computer program to carry
out a combinatorial search over every possible crystallographic graph in order
to extract all of the 4-connected periodic zeolitic graphs. For one unique
tetrahedral atom there are over 6,400 4-connected graphs, of which about 200
refine to regular tetrahedral topology. This work took over 10 years to bring
to fruition, and discovered many new theoretical zeolite frameworks, and
revealed some interesting idiosyncrasies in the International Tables for Crystallography. This work is
collaboration with I. Rivin and Martin Foster. This is an active research area.
Fluctuation
Microscopy: A powerful TEM technique for revealing medium-range order in
amorphous materials.
In collaboration with J.
M. Gibson, we have shown that statistical analysis of the speckle observed in
dark-field images of amorphous materials provides a measure of medium-range
order. We have called this new analytical TEM technique Fluctuation Microscopy. We have used fluctuation microscopy to
solve some long-standing problems in amorphous materials. We have shown that
as-deposited amorphous germanium and silicon films contain paracrystalline
regions. On annealing below the recrystallization temperature, Ge (but not Si)
transforms to the lower-energy continuous random network. We have also shown
that amorphous hydrogenated silicon (a-Si:H) undergoes a significant structural
re-arrangement on light-soaking – an observation that may lead to an
improved understanding of the Staebler-Wronski effect which currently limits
the efficiency of a-Si:H solar cells. Fluctuation microscopy is now being used
in several laboratories. This work remains active and has been extended to
scanning x-ray microscopy of disordered nanomaterials (with I. McNulty and J.
M. Gibson at Argonne), and also to scanning optical microscopy (student D.
Kumar). This is an active research area.
Schlfli cluster methods for
modeling amorphous tetrahedral models.
Borrowing
from my work on zeolite topologies, I have developed a simple topological tool
for investigating medium-range order in models of amorphous tetrahedral
semiconductors. Schlfli clusters are compact topological descriptors of the
local connectivity around each atom. (It later emerged that they are similar to
the earlier local cluster concept of L. W. Hobbs et al.) I have proposed that
the diamond Schlfli cluster is the minimum atomic configuration that can be
called topologically cubic. Searching for such clusters is a fast effective
tool for detecting medium range order in models of amorphous semiconductors.
In-situ TEM observations of
domain switching in ferroelectric thin films.
In
collaboration with A. Krishnan, we made in-situ TEM observations of domain wall
motion in thin single crystal ferroelectric materials under applied electric
fields. I designed, and had built, a special TEM specimen holder that can heat,
apply electric fields and shine light onto a sample. Our observations showed
that domain walls do not move as rigid membranes. Instead, we proposed that
domain walls move by allowing charged ripples to propagate along them. We
developed a simple Landau-Ginsburg Free energy argument showing that ripples
have a reduced barrier to switching. Ripples enable wall motion by a mechanism
analogous to that for dislocation motion in crystal slip. We also showed that
some domain walls are locked under certain electric field directions,
representing an inherent contribution to ferroelectric fatigue and imprint.
Developed an effective
dynamical diffraction Bloch wave explanation for the anomalous transmission of
light through thin hole arrays.
When
light is shone on a thin metallic film, which has a periodic array of
sub-optical wavelength diameter holes drilled through it, anomalously high
intensities are transmitted at certain wavelengths. That is, more light gets
through than would be expected from the projected hole area. The current
popular explanation is that surface plasmons guide the light through the
holes. I have developed an alternative dynamical diffraction Bloch wave theory
that completely explains the anomalous transmission, and does so without resorting
to special pleading about surface plasmons. The theory is fully general for
3-dimensional periodic gratings, and unlike the other theories, makes no
simplifications or approximations to Maxwells equations.
Exploited
thermal vibrations to measure Youngs modulus of carbon nanotubes
Long carbon nanotubes
that extend over holes in a TEM support film cannot be imaged clearly at their
tips because of vibrations. The vibration amplitude at the tip can be several
nanometers, and this blurring motion is normally a problem for high-resolution
TEM studies. I realized that the vibrations are elastically relaxed phonons and
represent heat motion. By measuring the r.m.s. vibration amplitude as a
function of temperature, I estimated the Youngs modulus to be ~1.8 teraPascal,
which makes carbon nanotubes the stiffest known material. Later, in
collaboration with T. W. Ebbesen, A. Krishnan and E. DuJardin, we applied this
method to single-walled nanotubes and obtained values of ~1.2 TPa, which we
believe are closer to the correct value. In collaboration with P. Yianilos, I
developed a hidden-parameter-inferencing technique to improve and
quantify the accuracy of the method. This unique application of TEM attracted
international attention, including highlights in Physics Today, C&E News,
New Scientist, Bild der Wissenschaft etc
Designability of graphitic
carbon cones.
In
collaboration with Ebbesen, Krishnan and DuJardin, we described in the journal Nature a special carbon black sample
that comprised a high density of graphitic disks and cones. Our TEM analysis
confirmed that the five topologically-allowed conical forms all occur in this
sample, but with a preponderance of the 60 cone-angle variety. I explained
this distribution with a simple model of graphitization. I pointed out that
there are many more ways to circumscribe carbon rings around the tip of a cone
than there are ways to imbed the same rings in planar graphite. For
topologically flexible seeds, graphitic cones are more designable than planar
graphite. With an assumed seed distribution, the model explains the observed
cone distribution – highlighting the role of entropy in the formation of
curved graphitic structures.
Primary author of the Collection
of Simulated XRD Powder Patterns For Zeolites.
The
Structure Commission of the International Zeolite Association maintains an
up-to-date website describing the approved zeolite frameworks. Periodically,
the Commission published updated handbooks describing zeolite frameworks and
their diffraction patterns. I wrote a computer program that automates the
production of the book Collection of Simulated XRD Powder Patterns For
Zeolites. This was not a trivial task, but was an enjoyable, instructive and
satisfying challenge. The program is due to be used next in 2012-2013 for the sixth
edition.
Mathematical tools for
characterizing zeolite frameworks.
In
part-collaboration with I. Rivin and Martin Foster, I have developed a number
of public-domain computational tools for characterizing zeolite frameworks. TOTOPOL is used to explore zeolite
structural details and topologies. It is my primary tool when examining new
framework proposals to the IZA Structure Commission. DelaneysDonkey is a whimsically-named code that executes a Delaunay
triangulation of zeolite frameworks to identify the largest included sphere and
the largest freespheres in a framework. This gives a good idea of the porosity
characteristics. I wrote both computer programs.
Flexibility of zeolite
frameworks.
In collaboration with Asel Sartbaeva, Stephen Wells
and Mike Thorpe at ASU, we showed that almost all of the known zeolites exhibit
a flexibility window when modeled as Ideal Zeolite Frameworks. This
important result provides a key test of hypothetical frameworks; if they lack
flexibility, the likelihood of them being realized in nature is diminished. The
composition of the framework is important, as the presence of different-sized
tetrahedra can promote or diminish flexibility. An active research topic at
present is the exploration of the nullspace represented by the flexibility
window, with a view to computing the configurational entropy of the framework.
An open question at present is whether or not the entropic density is a maximum
when the framework density is minimum. Intuition says yes, but we are
exploring this using advanced computational tools (collaboration with Vitaliy
Kapko and Colby Dawson.) This is an active research area.
Refereed Journal Articles
(1)
L. A. Freeman, A. Howie and M. M. J. Treacy,
Bright Field and
Hollow-cone Dark-Field Electron Microscopy of Palladium and Platinum Catalysts,
J. Microsc., 111
165–178 (1977).
(2) M. M. J. Treacy, A.
Howie and C. J. Wilson,
Z Contrast of Platinum and Palladium Catalysts,
Philos. Mag., A38
569–585 (1978).
(3) M. M. J. Treacy and A.
Howie,
Contrast Effects in the Transmission Electron Microscopy of
Supported Crystalline Catalyst Particles
J. Catal., 63
265–269 (1980).
(4) M. M. J. Treacy, W.
Krakow, D. A. Smith and G. Trafas,
A Technique For Comparing the Bulk and Surface Structure of Defects in Thin
Films Using the Scanning Transmission Electron Microscope,
Appl. Phys. Letts., 38 341–345 (1981).
(5) M. M. J. Treacy,
Imaging With Rutherford Scattered Electrons in the STEM,
Scanning Electron Microsc., 1 185–197 (1981).
(6) D. A. Smith and M. M. J.
Treacy,
Low-Loss Surface Imaging and Transmission Electron Microscopy of Growth of Some
Thin Films,
Applications of Surface Science,
11/12 131–143 (1982).
(7) M. M. J. Treacy,
Optimizing Atomic Number Contrast in Annular Dark Field Images of Thin Films in
the Scanning Transmission Electron Microscope,
J. Microsc. Spectrosc. Elctron., 7 511–523, (1982).
(8) F. Glas, M. M. J.
Treacy, M. Quillec and H. Launois,
Interface Spinodal Decomposition in LPE InGaAsP Lattice-Matched to InP,
J. de Physique, 43 C5 11–16 (1982).
(9) C. Colliex and M. M. J.
Treacy,
Le Microscope Elctronique Balayage et en Transmission, ou STEM,
in Microscopie Elctronique en Science
des Materiaux, ed. by B. Jouffrey, A. Bourret and C. Colliex, CNRS
Publication (Paris) 391–424 (1983).
(10) M. M. J. Treacy and J.
Bellessa,
On the Measurement of Surface Step Heights by Low-Loss Imaging in STEM,
Ultramicroscopy, 11 173–178 (1983).
(11) M. M. J. Treacy,
Atomic Number Imaging of Supported Catalyst Particles Using the Scanning
Transmission Electron Microscope,
in Catalytic Materials: Relationship
Between Structure and Activity, ed. by T. E. Whyte, R. A. Dalla Betta, E.
G. Derouane and R. T. K. Baker, ACS Symposium Series No. 248 367–383 (1984).
(12) J. M. Gibson and M. M.
J. Treacy,
The Effect of Elastic Relaxation on the Local Structure of Lattice-Modulated
Thin Films,
Ultramicroscopy, 14 345–350 (1984).
(13) J. M. Gibson, R. Hull,
J. C. Bean and M. M. J. Treacy,
Elastic Relaxation in Transmission Electron Microscopy of Strained Layer
Superlattices,
Appl. Phys. Letts., 46 649–651 (1985).
(14) M. M. J. Treacy, J. M.
Gibson and A. Howie,
On Elastic Relaxation and Long Wavelength Microstructures in
Spinodally-decomposed InGaAsP Epitaxial Layers,
Philos. Mag., A51 389–417 (1985).
(15) M. M. J. Treacy, J. M.
Newsam, R. A. Beyerlein, M. E. Leonowicz and D. E. W. Vaughan,
The Structure of Zeolite CSZ-1 Interpreted as a Rhombohedrally-Distorted
Variant of the Faujasite Framework,
J. Chem. Soc. Chem. Commun.
1211–1214 (1986).
(16) M. M. J. Treacy and J.
M. Gibson,
The Effects of Elastic Relaxation on TEM Studies of Thinned Composition-
Modulated Materials,
J. Vac. Sci. B4 1458–1466 (1986).
(17) M. M. J. Treacy, R. C.
Haushalter and S. B. Rice,
Transmission Electron Microscopy Study of the Reaction of Sn94- Zintl Ions with Single Crystal Au Films,
Ultramicroscopy, 23 135–150 (1987).
(18) M. M. Disko, M. M. J.
Treacy, S. B. Rice, R. R. Chianelli, J. A. Gland, T. R. Halbert and A. F.
Ruppert,
Spatially Resolved Electron Energy Loss Spectroscopy of MoS2
Platelets,
Ultramicroscopy, 23 313–320 (1987).
(19) M. M. J. Treacy and J.
M. Newsam,
Electron Beam Sensitivity of Zeolite L,
Ultramicroscopy, 23 411–420 (1987).
(20) M. M. J. Treacy, R. C.
Haushalter and S. B. Rice,
Reaction of Sn94- with Single Crystal Au: Textured Fiber
Epitaxial growth of AuSn at Room Temperature,
Angew. Chemie. 26 1155–1156 (1987).
(21) M. M. J. Treacy, J. M.
Gibson, K. T. Short and S. B. Rice,
Channeling Effects From Impurity Atoms in the High Angle Annular Detector of
the STEM,
Ultramicroscopy, 26 133–142 (1988).
(22) M. M. J. Treacy and J.
M. Newsam,
Two New Three–Dimensional Twelve–Ring Zeolite Frameworks of which
Zeolite Beta is a Disordered Intergrowth,
Nature, 332 249–251 (1988).
(23) M. M. J. Treacy and S.
B. Rice,
Catalyst Particle Sizes from Rutherford Scattered Intensities,
J. Microsc., 156 211–234 (1989).
(24) J. M. Newsam, M. M. J.
Treacy, W. Koetsier and C. B. deGruyter,
Structural Characterization of Zeolite Beta,
Proc. R. Soc. Lond., A420 374–405 (1988).
(25) J. M. Newsam, M. M. J.
Treacy, D. E. W. Vaughan, K. G. Strohmaier and W. J. Mortier,
The Structure of Zeolite ZSM–20; Mixed Cubic and Hexagonal Stackings of
Faujasite Sheets,
J. Chem Soc. Chem. Commun.,
493–495 (1989).
(26) D. E. W. Vaughan, M. M.
J. Treacy, J. M. Newsam, K. G. Strohmaier and W. J. Mortier,
Synthesis and Characterization of Zeolite ZSM–20,
in Zeolite Synthesis ed. by M. L.
Occelli and H. E. Robson, ACS Symposium Series No. 398 544–559 (1989).
(27) M. M. J. Treacy, S. B.
Rice, A. J. Jacobson and J. T. Lewandowski,
An Electron Microscopy Study of Delamination in Dispersions of the
Perovskite-Related Layered Phases K[Ca2Nan-3NbnO3n+1]: Evidence for Single
Layer Formation,
Chemistry of Materials, 2 279–286 (1990).
(28) C. B. de Gruyter, J. P.
Verduijn, J. Y. Koo, S. B. Rice and M. M. J. Treacy,
A Transmission Electron Microscopy Study of Grain Boundaries in Zeolite L,
Ultramicroscopy, 34 102–107 (1990).
(29) S. B. Rice, J. Y. Koo,
M. M. Disko and M. M. J. Treacy,
On the Imaging of Pt Particles in Zeolite Frameworks,
Ultramicroscopy, 34 108–118 (1990).
(30) M. M. J. Treacy, J. M.
Newsam and M. W. Deem,
A General Recursion Method for Calculating Diffracted Intensities from Crystals
Containing Planar Faults,
Proc. R. Soc Lond. A433 499–520 (1991).
(31) J. M. Newsam and M. M.
J. Treacy,
ZeoFile: A Stack of Zeolite Structure Types,
Zeolites, 13 183–186 (1993).
(32) M. M. J. Treacy and J.
M. Gibson,
Coherence and Multiple Scattering in Z
Contrast Images,
Ultramicroscopy 52 31–53 (1993).
Erratum to Coherence and Multiple Scattering in Z Contrast Images,
Ultramicroscopy 54 93 (1994).
(33) M. M. J. Treacy, J. M.
Newsam and M. W. Deem,
Simulation of Electron Diffraction Patterns from Partially Ordered layer
Lattices,
Ultramicroscopy, 52 512–522 (1993).
(34) S. B. Rice, M. M. J.
Treacy and J. M. Newsam,
Shear Faults in Lovelock Ferrierite: An X-Ray and Electron Diffraction
Analysis,
Zeolites, 14 335–343 (1994).
(35) B. McVicker, J. L. Kao,
J. J. Ziemiak, W. E. Gates, J. L. Robbins, M. M. J. Treacy, S. B. Rice, T. H.
Vanderspurt, V. R. Cross and A. K. Ghosh,
Effect of Sulfur on the Performance and on the Particle Size and Location of
Platinum in Pt/KL Hexane Aromatization Catalysts,
J. Catal. 139 48–61 (1993).
(36) M. M. J. Treacy, M. E.
Bisher and A. J. Jacobson,
A Hollow-Cone Dark-Field Study of Interlayer Cracks in Delaminated H[Ca2Nan-3NbnO3n+1] Materials,
Philos. Mag., 72 161–177 (1995).
(37) M. M. J. Treacy and J.
M. Gibson,
Atomic
Contrast Transfer in Annular Dark-Field Images,
J. Microsc. 180 2–11 (1995).
(38) K. Fossheim, E. Tuset,
T. W. Ebbesen, M. M. J. Treacy and J. Schwartz,
Enhanced Flux Pinning in Bi2Sr2CaCu2O8+x
Superconductors with Embedded Carbon Nanotubes,
Physica C, 248 195–202 (1995).
(39) M. M. J. Treacy, D. E.
W. Vaughan, K. G. Strohmaier and J. M. Newsam,
Intergrowth Segregation in fau–emt Zeolite
Materials,
Proc. R. Soc. Lond. 452 813–840 (1996).
(40) T. W. Ebbesen, H. Hiura,
M. E. Bisher, M. M. J. Treacy, J. Shreeve-Keyer and R. Haushalter,
Decoration of Carbon Nanotubes,
Advanced Materials, 8 155–157 (1996).
(41) M. M. J. Treacy and J.
M. Gibson,
Variable Coherence Microscopy: A Rich Source of Structural Information from
Disordered Materials,
Acta Cryst. A52 212–220 (1996).
(42) M. M. J. Treacy, T. W.
Ebbesen and J. M. Gibson,
Exceptionally high Youngs modulus observed for individual carbon nanotubes,
Nature, 381 678–680 (1996).
(43) Singhal, J. M. Gibson,
M. M. J. Treacy, P. D. Lane and J. R. Shapley,
Stability of Supported Organometallic Clusters Probed by a Mass-Sensitive TEM
Technique,
J. Phys. Chem., 100 6385–6388 (1996).
(44)
M.
M. J. Treacy, K. H Randall, S. Rao, J. A. Perry and D. J. Chadi,
Enumeration of Periodic Tetrahedral Frameworks,
Z. Krist., 212 768–791 (1997).
(45) J. M. Gibson and M. M.
J. Treacy,
Diminished Medium-Range Order Observed in Annealed Amorphous Germanium,
Phys. Rev. Letts. 78 1074–1077 (1997).
(46) A. Krishnan, E.
Dujardin, M. M. J. Treacy, J. Hugdahl, S. Lynum and T. W. Ebbesen,
Graphitic Cones and the Nucleation of Curved carbon Surfaces,
Nature, 388 451–454 (1997).
(47) D. R. Hines, G. T.
Seidler, M. M. J. Treacy and S. A. Solin,
Random Stacking of a Commensurate Guest layer in an Ordered Host: of Ni/Al
Layer-Double-Hydroxides,
Solid State Commun., 101 835–839 (1997).
(48) D. Hagrman, J. Zubieta,
L. M. Meyer, C. Warren, M. M. J. Treacy and R. C. Haushalter,
A New Polymorph of VO2 Prepared by Soft Chemical Methods,
J. Solid State Chem., 138 178–182 (1998).
(49) J. M. Gibson, M. M. J.
Treacy, P. M. Voyles, H-C. Jin and J. R. Abelson,
Structural Disorder Induced in Hydrogenated Amorphous Silicon by Light-Soaking,
Appl. Phys. Letts. 73
3093–3095 (1998).
(50) J. M. Gibson and M. M.
J. Treacy,
Fluctuation Microscopy: Atomic Order revealed in Seemingly Random
Electron Speckle Patterns,
in The Electron, Proceedings
of the International Centennial Symposium on the Electron
ed.
by A. Kirkland and P. Brown, IOM Communications Ltd, Institute of Materials
(London)
ISBN 1-86125-051-7, pp 212–221 (1998).
(51) E. Dujardin, A.
Krishnan, M.M.J. Treacy and T.W. Ebbesen,
Purification of single-walled nanotubes,
Advanced Materials, 10 611–613 (1998).
(52) E. Dujardin,
T. W. Ebbesen, A. Krishnan and M. M. J. Treacy,
Wetting of Single Shell Carbon Nanotubes,
Advanced Materials, 10
1472–1475 (1998).
(53) N. Yao, V. Lordi, and S.
X. C. Ma, E. Dujardin, A. Krishnan, M. M. J. Treacy, and T. W.
Ebbesen,
Structure and oxidation patterns of carbon nanotubes,
J. Mater. Res., 13
2432–2437 (1998).
(54) M. M. J. Treacy, J. M.
Gibson and P. J. Keblinski,
Paracrystallites found in evaporated amorphous tetrahedral semiconductors,
J. Non-Cryst. Solids, 231 99–110 (1998).
(55) A. Krishnan, E.
Dujardin, T. W. Ebbesen, P. N. Yianilos and M. M. J. Treacy
Youngs modulus of single-walled nanotubes,
Phys. Rev. B 58
14013–14019 (1998).
(56) M. M. J. Treacy,
Dynamical Diffraction in Metallic Optical Gratings,
Appl. Phys Letts. 75 606–608 (1999).
(57) M. M. J. Treacy,
Deactivation of Pt/KL Reforming Catalysts by Pt Agglomeration and Entombment,
J. Microporous and Mesoporous Materials, 28 271–292 (1999).
(58) P. M. Voyles, J. M.
Gibson and M. M. J. Treacy,
Fluctuation Microscopy: A Probe of Atomic Correlations in Disordered Materials,
J. Electron Microsc. 49(2) 259–266 (2000).
(59) M. M. J. Treacy, P. M.
Voyles and J. M. Gibson,
Schlfli Cluster Topological Analysis of Medium Range Order in Paracrystalline
Amorphous Semiconductor Models,
J. Non-Cryst. Solids, 266–269 150–155 (2000).
(60) G. Xu, G. Aeppli, M. E.
Bisher, C. Broholm, J. F. DiHusa, C. D. Frost, T. Ito, K. Oka, R.L. Paul, H.
Takagi and M. M. J. Treacy,
Holes in a quantum spin liquid,
Science, 289 419–422 (2000).
(61) M. M. J. Treacy, A.
Krishnan and P. Yianilos,
Inferring Physical Parameters from Images of Vibrating Carbon Nanotubes,
Microsc. Microanal. 6 317–323 (2000).
(62) J. M. Gibson, M. M. J.
Treacy and P. M. Voyles,
Atom Pair Persistence in Disordered Materials from Fluctuation Microscopy,
Ultramicroscopy 83 169–178 (2000).
(63) M. M. J. Treacy,
Book review of Structures and Structure Determination, ed by: H. G. Karge and
J. Weitkamp,
J. Microporous and Mesoporous Materials,
(2000).
(65) P. M. Voyles, J. E.
Gerbi, M. M. J. Treacy, J. M. Gibson, J. R. Abelson,
Increased Medium-Range Order in Amorphous Silicon with Increased Substrate
Temperature
J. Non-Cryst.
Solids, 293–295,
45–52 (2001).
(66) P. M. Voyles, N. Zotov,
S. M. Nahkmanson, D. A. Drabold, J. M. Gibson, M. M. J. Treacy and P.
Keblinski,
The Structure and Physical Properties of Paracrystalline Atomistic Models of
Amorphous Silicon,
J. Appl. Phys., 90
4437–4451 (2001).
(67) A. Krishnan, M. M. J.
Treacy, M. E. Bisher, P. Chandra and P. B. Littlewood,
Efficient Switching and Domain Interlocking Observed in Polyaxial
Ferroelectrics
Integrated Ferroelectrics.
(2002).
(68) M. J. Higgins, A.
Krishnan, M. M. J. Treacy and S. Bhattacharya,
Depoling a ferroelectric capacitor,
J. Appl. Physics. 80 3373–3376 (2002).
(69) P. Keblinski, M. Z. Bazant,
R. K. Dash and M. M. Treacy,
Thermodynamic behavior of a model covalent material described by the
environment-dependent interatomic potential,
Phys. Rev. B 66 064104 (2002).
(70) M. M. J. Treacy,
A dynamical diffraction explanation of the anomalous transmission of light
through metallic hole arrays,
Phys. Rev. B 66 195105 (2002).
(71) M. M. J. Treacy,
Describing ordered microporous and mesoporous materials,
J. Microporous and Mesoporous Materials,
58 1–2 (2003).
(72) R. K. Dash, P. M.
Voyles, J. M. Gibson, M. M. J. Treacy and P. Keblinski,
A quantitative measure of medium-range order in amorphous materials from
transmission electron micrographs,
J. Phys.: Condens. Matter, 15
1–12 (2003).
(73) J. E. Gerbi, P. M.
Voyles, M. M. J. Treacy, J. M. Gibson and J. R. Abelson,
Increasing medium-range order in amorphous silicon with low-energy ion
bombardment,
Appl. Phys. Letts. 82 3665–3668 (2003).
(74) Ju-Yin Cheng, M. M. J.
Treacy, P. J. Keblinski and J. M. Gibson,
Diffraction microscopy for disordered tetrahedral networks,
J. Appl. Phys. 95
7779–7784 (2004).
(75) M. M. J. Treacy, I.
Rivin, E. Balkovsky, K. H. Randall and M. D. Foster,
Enumeration of Periodic Tetrahedral Frameworks. II.
Polynodal Graphs,
Microporous and
Mesoporous Materials 74
121–132. (2004).
(76) L. Fan, I. McNulty, D.
J. Paterson, M. M. J. Treacy and J. M. Gibson
Fluctuation microscopy – a tool for examining medium-range order in
non-crystalline systems,
Nuclear. Inst. Method. B238 196–199 (2005).
(77) M. D. Foster, M. M. J.
Treacy, J. B Higgins, I. Rivin, E. Balkovsky and K. H. Randall,
A Systematic Topological Search for the Framework of
ZSM-10,
J. Appl. Cryst.
38 1028–1030 (2005).
(79) O. Delgado Friedrichs,
M. D. Foster, M. OKeeffe, D. M. Proserpio, M. M. J. Treacy and O. M. Yaghi,
What do we know about three-periodic nets?
J. Solid State Chemistry, 178, 2533-2554 (2005).
(80) M. M. J. Treacy, M. D.
Foster and K. H. Randall,
An Efficient Method for Determining Zeolite Vertex Symbols,
Microporous and
Mesoporous Materials, 87
255–260 (2006).
(81) M. D. Foster, I. Rivin,
M. M. J. Treacy and O. Delgado Friedrichs,
A geometric solution to the Largest-Free-Sphere problem in zeolite frameworks,
Microporous and Mesoporous Materials,
90 32–38 (2006).
(82)
M.
M. J. Treacy, J. M. Gibson, L. Fan, D. J. Paterson and I. McNulty,
Fluctuation Microscopy; A Probe of Medium Range Order,
Rep. Prog. Phys. 68
2899–2944
(2005).
(83) M. M. J. Treacy,
What is Fluctuation Microscopy?
Microscopy Today, 13(5) 20–21 (2005).
(84) A. Bodapati, M. M. J.
Treacy, M. Falk, J. Kieffer and P. Keblinski,
Medium range order and the radial distribution function,
J. Non-Cryst. Solids 352 116–122 (2006).
(85) S. A. Wells, M. D.
Foster and M. M. J. Treacy,
A Simple Geometric Structure Optimizer for Accelerated Detection of Infeasible
Zeolite Graphs,
Microporous and Mesoporous Materials 93 151–157 (2006).
(86) R. Sharma, P. Rez and M.
M. J. Treacy,
Direct Observations of the Growth of Carbon Nanotubes using in situ Transmission Electron Microscopy
e-Journal of Surface and Nanotechnology 4 460–463 (2006).
(87) A.
Sartbaeva, S. A. Wells, M. M. J. Treacy and M. F. Thorpe,
The flexibility window in zeolites,
Nature Materials 5 962–965 (2006).
(88) L. Fan, D. Paterson, I.
McNulty, M. M. J. Treacy and J. M. Gibson,
Fluctuation X-ray Microscopy: A Novel Approach for the Structural Study of
Disordered Materials,
J. Microsc, 225 41–48 (2007).
(89) M. M. J. Treacy,
When structural noise is the signal: Speckle statistics in fluctuation electron
microscopy,
Ultramicroscopy 107 166–171 (2007).
(90) R.
Sharma, P. Rez, M. Brown, G. Du and M. M. J. Treacy
Dynamic observations of the effect of pressure and temperature conditions on
the selective synthesis of carbon nanotubes
Nanotechnology 18 1–8 (2007)
(91) M.
M. J. Treacy, D. Kumar, A. Rouge, G. Zhao, P. R. Buseck, I. McNulty, L. Fan,
C. Rau and J. M. Gibson, Probing medium-range structural correlations by
fluctuation microscopy
J. Phys.: Condens. Matter 19 455201 (2007).
(92) M. M. J. Treacy, M. D.
Foster and I. Rivin,
Towards a catalog of designer zeolites,
in Turning Points in Solid State, Materials and Surface Science, ed.
By K.D.M. Harris and P.P. Edwards, RSC Publishing, Cambridge, U.K. Ch. 12, pp.
208–220, (2008).
(93) M. M. J. Treacy, D. Kumar, A. Rouge,
G. Zhao, P. R. Buseck, I. McNulty, L. Fan, C. Rau and J. M. Gibson,
Glimpsing order within the disarray,
J. Phys.: Conf. Ser. 126 012001 (2007).
(94) J. M. Gibson and M. M.
J. Treacy,
Beam transit effects in single molecule coherent diffraction
Phys. Rev B. 78 245401 (2008).
(95) G. Zhao and P. R.
Buseck, A. Rouge and M. M. J. Treacy,
Medium-range order in molecular materials: Fluctuation electron microscopy for
detecting fullerenes in disordered carbons,
Ultramicroscopy 109 177–188 (2009).
(96) M. M. J. Treacy and M.
D. Foster,
Packing Sticky Hard Spheres into Rigid Zeolite Frameworks,
Microporous and Mesoporous Materials 118 106–114 (2009).
(97) R. Sharma, E. Moore, P.
Rez and M. M. J. Treacy,
Site-Specific Fabrication of Fe Particles for Carbon Nanotube Growth,
Nano Letters, 9 689–694 (2009).
(98) V. Kapko, M. M. J.
Treacy, M. F. Thorpe and S. D. Guest,
On the Collapse of Locally Isostatic Networks,
Proceedings of the Royal Society A 2193–2207
(2009).
(99) A. Gamalski, E. S.
Moore, M. M. J. Treacy, R. Sharma and P. Rez,
Diffusion-Gradient-Induced Length Instabilities in the Catalytic Growth of
Carbon Nanotubes,
Applied Physics Letters 95 233109 (2009).
(100) G. Zhao, M. M. J. Treacy
and P. R. Buseck,
Fluctuation Electron Microscopy of Medium-Range Order in Ion-irradiated Zircon,
Submitted to Philosophical Magazine
(2010).
(101) M. OKeeffe and M. M. J.
Treacy,
Dense quasicrystalline tilings by squares and equilateral triangles,
Acta Cryst..A66 5–9 (2010).
(1)
M. M. J. Treacy, A. Howie and S. J. Pennycook
Z Contrast of Supported Catalyst Particles in the STEM
Inst. Phys. Conf. Ser. No.52 261–265
(1980).
(2)
P.
E. Batson and M. M. J. Treacy,
Low Energy-loss Structure of Small Aluminum Particles,
in Proceedings of the 38th Annual
Electron Microscopy Society of America meeting, ed. by G.W. Bailey
(Claitor's Publishing Division; Baton Rouge), 126–127 (1980).
(3)
M.
M. J. Treacy and J. M. Gibson,
Detection of Interstitial Impurities Using a High Angle Annular Detector in
STEM,
in Proceedings of ASU Conference on 'STEM
in Solid State Science', Castle Hot Springs, Arizona, (ed O. L. Krivanek), 194 (1981); and Ultramicroscopy, 7 p109
(1981).
(4)
M.
M. J. Treacy, D. A. Smith, W. Krakow and G. Trafas,
Low-Loss Surface Imaging of Thin Films in STEM,
Inst. Phys. Conf. Ser. No. 61 429–433 (1981).
(5)
M.
M. J. Treacy and J. M. Gibson,
On the Detection of Point Defects in Crystals Using High Angle Diffuse
Scattering in the STEM,
Inst. Phys. Conf. Ser. No. 61 263–267 (1981).
(6)
F.
Glas, P. Hnoc, A. Izral, H. Launois, M. Quillec and M. M. J. Treacy,
STEM Microanalysis of Composition Modulations in InGaAsP Alloys Grown by Liquid
Phase Epitaxy,
in Proceedings of the 10th International
Congress on Electron Microscopy, Hamburg 406–406 (1982).
(7)
H.
Launois, M. Quillec, F. Glas and M. M. J. Treacy,
Interface Spinodal Decomposition in LPE InGaAsP Lattice-matched to InP,
in Proceedings of the 10th International
Conference on Defects in Semiconductors, The Metallurgical Society of AIME,
(1982).
(8)
M.
M. J. Treacy, J. M. Gibson and R. Hull,
Elastic Relaxation in Compositionally-Modulated Thin Films,
in Proceedings of the 13th International
Conference on Defects in Semiconductors, The Metallurgical Society of AIME,
1179–1186 (1985).
(9)
J.
M. Gibson, M. M. J. Treacy, R. Hull and J. C. Bean,
Transmission Electron Microscopy of Strained Layer Superlattices,
in Layered Structures, Epitaxy and
Interfaces, ed. by J. M. Gibson and L. R. Dawson, Materials Research
Society Symp. Proc. Vol. 37 (1985).
(10) M. M. J. Treacy,
Detection and Imaging of Supported Catalyst Particles,
in Materials Problem solving with the
Transmission Electron Microscope, ed. by L. W. Hobbs, K. H. Westmacott and
D. B. Williams, Materials Research Society Symp. Proc. Vol. 62 367–372 (1986).
(11) M. M. J. Treacy, J. M.
Newsam, D. E. W. Vaughan, R. A. Beyerlein and S. B. Rice,
Stress and Rhombohedral Distortion in Platelet Faujasite-type Zeolites,
in Analytical Electron Microscopy –
1987, ed. by D. C. Joy, San Francisco Press, San Francisco, 161–165
(1987).
(12) S. B. Rice and M. M. J.
Treacy,
The Art of the Possible: An Overview of Catalyst Specimen Preparation
Techniques for TEM Studies,
in Specimen Preparation for Transmission
Electron Microscopy of Materials, ed. by J. C. Bravman, R. M. Anderson and
M. L. McDonald, Materials Research Society Symp. Proc. Vol. 115 15–27 (1988).
(13) M. M. J. Treacy, J. M.
Newsam, D. E. W. Vaughan, R. Beyerlein, S. B. Rice and C. B. de Gruyter,
On the propagation of twin–fault–induced stress in platelet FAU
framework zeolites,
in Microstructure and Properties of Catalysts,
ed by M. M. J. Treacy, J. M. Thomas and J. M. White, Materials Research Society
Symp. Proc. Vol. 111 177–190
(1988).
(14) S. B. Rice and M. M. J.
Treacy,
Measurement of Particle Sizes in the STEM Using High–Angle Annular
Detector Image Intensities,
in Proc. 46th Meeting of the Electron
Microscopy Society of America, San Francisco Press, San Francisco,
696–697 (1988).
(15) J. H. Butler and M. M.
J. Treacy,
High Spatial–Resolution Microanalysis in the Petrochemical Industry,
in Microbeam Analysis – 1988, ed. by D. E. Newbury, San Francisco Press,
San Francisco, 69–74 (1988).
(16) M. M. J. Treacy,
Elastic Relaxation and TEM Image Contrasts in Thin Composition–Modulated
Semiconductor Crystals,
in Evaluation of Advanced Semiconductor
Materials by Electron Microscopy, ed. by D. Cherns, NATO ASI series B203 255–266 (1989).
(17) M. M. J. Treacy, J. M.
Newsam and M. W. Deem,
Diffraction From Zeolites Containing Planar Faults,
in Characterization of Structure and
Chemistry of defects in Materials, ed. by B. C. Larson, M. Ruhle and D. N.
Seidman, Materials Research Society Symposium Proceedings Vol 138 497–502 (1989).
(18) D. E. W. Vaughan, M. M.
J. Treacy and J. M. Newsam,
Recent Advances in Techniques for Characterizing Zeolite Structures,
in Guidelines for Mastering the
Properties of Molecular Sieves, Ed. by D. Barthomeuf et al. Plenum Press,
New York 99–120 (1990).
(19) S. B. Rice and M. M. J.
Treacy,
Imaging Single Platinum Atoms on Zeolites in the STEM,
in XIIth International Congress for
Electron Microscopy, Ed. by G. W. Bailey, San Francisco Press, San
Francisco 240–241 (1990).
(20) J. M. Newsam, M. M. J.
Treacy, D. E. W. Vaughan, K. G. Strohmaier and M. T. Melchior,
Intergrowths in Zeolite Structures,
in Synthesis of Microporous Materials -
Molecular Sieves, Vol 1, ed by M. L. Occelli and H. E. Robson, Van Nostrand
Reinhold, New York, 454–472 (1992).
(21) M. M. J. Treacy, M. E.
Bisher and A. J. Jacobson,
Hollow-Cone Analysis of Intercalated Particles in Layered H[Ca2Nan-3NbnO3n+1] Materials,
in Proc. 51st Annual Electron Microscopy
Society of America Meeting, Ed. by G. W. Bailey and C. L. Rieder, San
Francisco Press, San Francisco 748–749 (1993).
(22) M. M. J. Treacy, S. Rao
and I. Rivin,
A Combinatorial Method for Generating New Zeolite Frameworks,
in Proceedings of the 9th International
Zeolite Conference, Montreal 1992, Eds R. Von Ballmoos, J. B. Higgins and
M. M. J. Treacy, Butterworth-Heinemann (Stoneham, Massachusetts) 381–388
(1993).
(23) D. E. W. Vaughan, K. G.
Strohmaier, M. M. J. Treacy, S. B. Rice and M. E. Leonowicz,
The influence of Intergrowths on Zeolite Properties,
in Natural Zeolites 93, Ed. by D. W.
King and F. H. Mumpton, Int. Comm. Natural Zeolites, Brockport, New York,
187–198 (1994).
(24) A. Singhal, J. M. Gibson
and M. M. J. Treacy,
Mass Measurement in Sub-Nanometer Clusters by Z-Contrast Microscopy,
Microbeam Analysis Society, Proceedings
29th Annual Conference Breckenridge, Colorado, ed. by E. S. Etz, (VCH: New
York) 277–278 (1995).
(25) M. M. J. Treacy, M. E.
Bisher, A. J. Jacobson and J. M. Gibson,
In Z-contrast, Not All That Glistens is High-Z,
in Proc. Microscopy and Microanalysis
1995, ed. by G. W. Bailey, M. H. Ellisman, R. A. Hennigar and N. J.
Zaluzec, Jones & Begall Publishing, New York, 174–175 (1995).
(26) M. E. Bisher, D. K.
Fygenson, F. Booy, A. Libchaber and M. M. J. Treacy,
Cryo-Electron and Optical Microscopy Study of Lipid-Encapsulated Microtubules,
in Proc. Microscopy and Microanalysis
1995, ed. by G. W. Bailey, M. H. Ellisman, R. A. Hennigar and N. J.
Zaluzec, Jones & Begall Publishing, New York, 712–713 (1995).
(27) S. A. Solin, D. R. Hines,
G. T. Seidler and M. M. J. Treacy,
Novel Structural Properties of Ni1-xAlx Layer Double Hydroxides,
Proceedings of the ISICS conference,
J. Phys. Chem. Solids 57
1043–1048 (1996).
(28) Michael M. J. Treacy,
John B. Higgins and Roland von Ballmoos,
Preface to the Collection of Simulated XRD Powder Patterns for Zeolites
Zeolites 16 327-328 (1996).
(29) A. Krishnan, E.
Dujardin, M. E. Bisher, M. M. J. Treacy, J. Hugdahl, S. Lynum and T. W.
Ebbesen,
Graphitic Cones,
in Proc. Microscopy and Microanalysis
1997, ed. by G. W. Bailey, R. V. W. Dimlich, K. B. Alexander, J. J.
McCarthy & T. P. Pretlow, Springer-Verlag New York Inc., 437–438
(1997).
(30) M. M. J. Treacy and T.
W. Ebbesen,
Mechanical Properties of Carbon Nanotubes Inferred from TEM,
in Proc. Microscopy and Microanalysis
1997, ed. by G. W. Bailey, R. V. W. Dimlich, K. B. Alexander, J. J.
McCarthy & T. P. Pretlow, Springer-Verlag New York Inc., 393–394
(1997).
(31) M. M. J. Treacy and J.
M. Gibson,
Statistics of Partially Coherent Dark-Field Images of Amorphous Materials,
in Electron Microscopy and Analysis 1997,
ed. by J. M. Rodenburg, Inst. Phys. Conf.
Ser. No. 153, (Institute of
Physics, London) 433–436 (1997).
(32) J. M. Gibson, M. M. J.
Treacy and D. Loretto,
Electron Speckle and Higher-Order Correlation Functions from Amorphous Thin
Films,
in Structure and Dynamics of Glasses and
Glass Formers, ed. by C. A. Angell, K. L. Ngai, J. Kieffer, T. Egami, and
G. U. Nienhaus, Materials Research Society Symposium Proceedings Vol 455
349–356 (1998).
(33) J. M. Gibson, M. M. J.
Treacy and P. M. Voyles,
Fluctuation Microscopy: A new class of microscopy techniques for probing medium
range order in amorphous materials,
Microsc. Microanal. 4 (Suppl 2: Proceedings) (Microscopy
Society of America, Springer) 702–703 (1998).
(34) A.Krishnan, E. Dujardin,
T.W.Ebbesen and M.M.J.Treacy
Graphitic Disks or Polygons? Faceting of graphite disks,
Microsc. Microanal. 4 (Suppl 2: Proceedings) (Microscopy
Society of America, Springer) 708–709 (1998).
(35) M. M. J. Treacy, K. H.
Randall and S. Rao,
The search for new zeolite frameworks,
in Proceedings of the twelfth
International Zeolite Conference, ed. by M. M. J. Treacy, B. K. Marcus, M.
E. Bisher and J. B. Higgins, (Materials Research Society, Warrendale, USA) Vol.
1 pp 517–532, (1999).
(36) H. Gies, R. Kirchner, H.
van Koningsveld and M. M. J. Treacy,
Faulted zeolite framework structures,
in Proceedings of the twelfth
International Zeolite Conference, ed. by M. M. J. Treacy, B. K. Marcus, M.
E. Bisher and J. B. Higgins, (Materials Research Society, Warrendale, USA) Vol.
4 pp 2099–3099, (1999).
(37) J. M. Gibson, M. M. J.
Treacy, P. M. Voyles, J. R. Abelson and H-C. Jin,
Changes in the Medium Range Order of a-Si:H Thin Films Observed by Variable
Coherence TEM,
in Amorphous and Microcrystalline Silicon
Technology—1998, ed. by S. Wagner, M. Hack, H. M. Branz, R. Schropp,
and I. Shimizu, Materials Research
Society Symposium Proceedings Vol 507
837–842 (1998).
(38) J. M. Gibson, J-Y.
Cheng, P. M. Voyles, M. M. J. Treacy, and D. C. Jacobson,
The Structure of Ion-Implanted Amorphous Silicon,
In Microstructural Processes in Infrared
Materials ed. by S. J. Zinkle, G. Lucas, R. Ewing and J. Williams, Materials Research Society Symposium
Proceedings Vol 540 27–30
(1999).
(39) A. Krishnan, M. E.
Bisher and M. M. J. Treacy,
In situ Observation of Ferroelectric Domain Motion in BaTiO3,
Microsc. Microanal. 5 (Suppl 2: Proceedings) (Microscopy
Society of America, Springer) 780–781 (1999).
(40) J-Y. Cheng, J. M.
Gibson, P. M. Voyles, M. M. J. Treacy, D. C. Jacobson,
Ion-Implanted Amorphous Silicon Studied by Variable Coherence TEM,
in
Advances in Materials Problem Solving with the
Electron Microscope ed. By J. Bentley, U. Dahmen, C. Allen, I. Petrov
Mater. Res. Soc. Symp. Proc. 589,
247–252 (1999).
(41) M. M. J. Treacy, A.
Krishnan, E. Dujardin, P. N. Yianilos and T. W. Ebbesen,
Y Contrast of Single Shell Carbon Nanotubes: determination of Youngs Modulus
by Observing Thermal Vibrations,
Microsc. Microanal. 5 (Suppl 2: Proceedings) (Microscopy
Society of America, Springer) 676–677 (1999).
(43) M. M. J. Treacy, P. M.
Voyles and J. M. Gibson,
Topological Signatures of Medium Range Order in Amorphous Semiconductor Models,
in Amorphous and Heterogeneous Silicon
Thin Films 2000, ed. by R. W. Collins, H. M. Branz, S. Guha, H. Okamoto, M.
Stutzmann, Materials Research Society
Symposium Proceedings Vol 609
A2.5.1–A2.5.6 (2001).
(44) P. M. Voyles, M. M. J.
Treacy, H. C. Jin, J. R. Abelson, J. M. Gibson, S. Guha and R. S. Crandall,
Comparative Fluctuation Microscopy Study of Medium-Range Order in Hydrogenated
Amorphous Silicon Deposited by Various Methods,
in Amorphous and Heterogeneous Silicon
Thin Films 2000, ed. by R. W. Collins, H. M. Branz, S. Guha, H. Okamoto, M.
Stutzmann, Materials Research Society
Symposium Proceedings Vol 609
A2.4.1–A2.4.6 (2001).
(45) A. Krishnan, M. M. J.
Treacy, M. E. Bisher, P. Chandra and P. B. Littlewood,
Displacement Charge Patterns and Ferroelectric Domain Wall Dynamics Studied by
In-Situ TEM,
in Ferroelectric Thin Films VIII, ed.
by R. W. Schwartz, P. C. McIntyre, Y. Miyasaka. S. R. Summerfelt and D.
Wouters, Materials Research Society Symposium Proceedings Vol 596 161–166 (2000).
(46) A. Krishnan, M. M. J.
Treacy, M. E. Bisher, P. Chandra and P. B. Littlewood,
Maxwellian Charge on Domain Walls,
in Fundamental Physics of Ferroelectrics
2000: Aspen Center for Physics Winter Workshop, ed. by R. E. Cohen, American Institute of Physics Conference
Proceedings 535 191–200
(2000).
(47) M. M. J. Treacy,
Deactivation of Pt/Zeolite-L Catalysts Studied by Z-Contrast,
Microsc. Microanal. 6 (Suppl 2: Proceedings) (Microscopy
Society of America, Springer) xxx–xxx (2000).
(48) A. Krishnan, M. M. J.
Treacy, M. E. Bisher, P. Chandra and P. B. Littlewood,
Maxwellian Charge on Ferroelectric Domain Walls in KNbO3,
Microsc. Microanal. 6 (Suppl 2: Proceedings) (Microscopy
Society of America, Springer) xxx–xxx (2000).
(50) M. M. J. Treacy and J.
Kilian,
Designability of Graphitic Cones.
Mat. Res. Soc. Symp. Proc. Vol 675 (2001).
(51)
M.
M. J. Treacy and J. M. Gibson,
Fluctuation microscopy: A technique for revealing atomic
correlations in structurally noisy (disordered) materials
SPIE (International Society for Optical Engineering) Conf proceedings (2003).
(52) J-Y.
Cheng, M. M. J. Treacy and P. J. Keblinski,
Metamict Transformation of Silica,
in Amorphous and Nanocrystalline
Silicon-Based Films – 2003, Ed. By John
R. Abelson, Gautam Ganguly, Hideki Matsumura, John Robertson, Eric A. Schiff MRS
Symposium Proceedings Series, Vol. 762, A5.18.1-6 (MRS, Warrendale, PA 2003).
(53) L. Fan, I. McNulty, D.
J. Paterson, M. M. J. Treacy and J. M. Gibson
Fluctuation X-ray Microscopy for Measuring Medium-Range Order,
Mater. Res.
Soc. Symp. Proc. Vol.840, Q6.7.1-Q.6.7.6
(2005).
(54) M. M. J. Treacy
Fluctuation Microscopy for the MASses,
Proceedings of the Microbeam Analysis Society (2005).
(55) R. Sharma, P. Rez and
M.M.J. Treacy
In situ observations of the effect of synthesis conditions on the growth rates
and mechanisms of carbon nanotubes.
Microscopy and Microanalysis (2005)
(56) M. M. J. Treacy
Fluctuation Microscopy: What is it?
Microscopy Today, 20–21 Sept.
(2005).
(57) L. Fan, D.
J. Paterson, I. McNulty, M. M. J. Treacy, D. Kumar,
P. Du, U. Wiesner, J. M. Gibson
Characterization
of medium-range order in organic-inorganic hybrid
nanomaterials by fluctuation x-ray microscopy.
SRMS-5
Conference, Chicago July 30-
Aug.2, SRMS5- 172 (2006).
(58) M.
M. J. Treacy, M. Brown, P. Rez, G.H. Du and R. Sharma
In-Situ TEM Observations of Carbon
Nanotube Growth By The Catalytic Decomposition of Acetylene
Microscopy and Microanalysis (2006).
(59) M. M. J. Treacy, A. Rougee, and P.R. Buseck
Fluctuation Electron Microscopy of Shungite, a Disordered Natural Carbonaceous
Material.
Microscopy and Microanalysis (2006).
(60) L. Fan, D. Paterson, I.
McNulty, M. M. J. Treacy, D. Kumar, P. Du, U. Wiesner, and J. M. Gibson,
Characterization of Medium-range Order in Self-Assembled Organic-inorganic
Hybrid by Fluctuation X-ray Microscopy.
Mater. Res. Soc. Symp. Proc. Vol. 960
Materials Research Society, 0960-N09-09 (2007).
(61)
R.
Sharma, Edward Moore, Peter Rez and M.M.J. Treacy,
Selective fabrication of iron particles
for atomic level observation of carbon nanotube growth,
Microscopy and Microanalysis (2008).
(62)
E.
S. Moore, R. Sharma, P. Rez, M. M. J. Treacy and A, Gamalski,
In Situ Synthesis of Fe Catalyst and Carbon Nanotubes by Chemical Vapor
Deposition,
Microscopy and Microanalysis, 14 10–11 (2008).
(63) J. M. Gibson and M. M.
J. Treacy
Defocus as an ineffective means of changing spot size for fluctuation
microscopy,
Journal of Physics: Conference Series
186 012053 (2009).
(1) M. M. J. Treacy, J. M.
Thomas and J. M. White,
Microstructure and Properties of Catalysts
Materials Research Society Symp. Proc. Vol 111
(1988).
(2) R. Von Ballmoos, J. B.
Higgins and M. M. J. Treacy,
Proceedings of the Ninth International Zeolite Conference,
Butterworth-Heinemann, Stoneham Massachusetts (1993).
(3)
M.
M. J. Treacy, J. B. Higgins R. von Ballmoos,
Collection of Simulated XRD Powder Patterns For Zeolites,
Third Edition, Elsevier (1996).
(5)
M.
M. J. Treacy and J. B. Higgins
Collection of Simulated XRD Powder Patterns For Zeolites,
Fourth Edition, Elsevier, (2001).
(6)
R.
Sharma, P. A. Crozier and M. M. J. Treacy
Dynamic in-situ electron microscopy
as a tool to meet the challenges of the nanoworld,
NSF Workshop Report (Aug. 2006).
(7)
M.
M. J. Treacy and J. B. Higgins
Collection of Simulated XRD Powder Patterns For Zeolites,
Fifth Edition, Elsevier, (2007).
Invited Lectures
National/International Conferences
(1)
Z
Contrast of Supported Catalyst Particles in the STEM, Institute of Physics
Conference, Electron Microscopy and Microanalysis Group, Brighton (9/1979).
(2)
Le
Microscope Elctronique Balayage et en Transmission, ou STEM, lecture
presented in French at the Bombannes Summer School, Bordeaux (8/1981).
(3)
Optimizing
Atomic Number Contrast in Annular Dark Field Images of Thin Films in the
Scanning Transmission Electron Microscope presented in French at TEM
conference, Reims (1982).
(4)
Atomic
Number Imaging of Supported Catalyst Particles Using the Scanning Transmission
Electron Microscope, American Chemical Society Conference on Catalytic Materials: Relationship Between
Structure and Activity, San Francisco (1983).
(5)
Transmission
electron Microscopy of Surfaces and particles, Solid State Physics Gordon
Conference, Plymouth NH (6/1985).
(6)
Detection
and Imaging of Supported Catalyst Particles, in Materials Problem solving with the Transmission Electron Microscope,
Annual Materials Research Society Fall Symposium, Boston (12/1986).
(7)
Stress
and Rhombohedral Distortion in Platelet Faujasite-type Zeolites, Annual
Microbeam Analysis Society Conference, Hawaii (1987).
(8)
The
Art of the Possible: An Overview of Catalyst Specimen Preparation Techniques
for TEM Studies, in Specimen Preparation
for Transmission Electron Microscopy of Materials, Annual Materials
Research Society symposium (12/1988).
(9)
Measurement
of Particle Sizes in the STEM Using High–Angle Annular Detector Image
Intensities, Annual Microscopy Society of America Conference, (8/1988).
(10) High
Spatial–Resolution Microanalysis in the Petrochemical Industry, Annual
Microscopy Society of America meeting, Albuquerque NM (8/1988).
(11) Characterization of
faulted zeolites, Solid State Chemistry Gordon Conference, (1988).
(12) Elastic Relaxation and
TEM Image Contrasts in Thin Composition–Modulated Semiconductor
Crystals, in Evaluation of Advanced
Semiconductor Materials by Electron Microscopy, NATO conference (10/1988).
(13) Structure-Property
relationships in Catalysts, Annual American Society of Metallurgists
conference, Cleveland (10/1991).
(14) Intergrowths in Zeolite
Structures, American Chemical Society Symposium on Molecular Sieves, New York
(1992).
(15) The influence of
Intergrowths on Zeolite Properties, conference on Natural Zeolites, (1993).
(16) A recursion method for
simulating diffraction from faulted crystals'', American Crystallographic
Association, Albuquerque (8/1993).
(17) Z-contrast: the real
and the imagery, Frontiers of Electron Microscopy, Berkeley (6/1994).
(18) In Z-contrast, Not All
That Glistens is High-Z, Annual Microscopy Society of America Conference
(8/1995).
(19) Combinatorial Methods
for Generating Zeolite Frameworks Zeolites and Layered Materials Gordon
Conference (6/1995).
(20) Dark Field Speckle: Is
It More Than Just Spots Before The Eyes?'', Frontiers of Electron Microscopy,
Chicago, (6/1996).
(21) A combinatorial method
for generating new zeolite frameworks'', International Union for
Crystallography Conference, Seattle, (8/1996).
(23)
Mechanical
Properties of Carbon Nanotubes Inferred from TEM, Annual Microscopy Society of
America Conference (8/1997).
(24)
Zeolite
families and their faulty relatives, DOE workshop on Partially disordered chemical systems, Santa Fe, NM (5/1998).
(25)
Youngs
Modulus of Carbon Nanotubes by TEM, National Center for Electron Microscopy
colloquium, Berkeley (6/1998).
(26)
The
search for new zeolite frameworks, Plenary Lecture 12th International Zeolite
Conference (7/1998).
(27)
Y
Contrast of Single Shell Carbon Nanotubes: determination of Youngs Modulus by
Observing Thermal Vibrations, Annual Microscopy Society of America Conference,
Portland, OR (08/1999).
(28)
Deactivation
of Pt/Zeolite-L Catalysts Studied by Z-Contrast Annual Microscopy Society of
America Conference, Philadelphia, PA (08/2000).
(29)
Designability
of carbon cones, Annual Materials Research Society Spring meeting, (4/2001).
(30)
Enumeration
of Zeolite Frameworks, Mansfield College Meeting, SSG on Solid State
Chemistry, Oxford, UK (4/2003).
(31)
Fluctuation
microscopy: A technique for revealing atomic correlations in structurally noisy
(disordered) materials, SPIE (International Society for Optical Engineering)
Conference, Santa Fe, NM (6/2003).
(32)
Finding
the Meaningful Spatial Patterns in Structural Noise, Keynote talk at the first
Symposium on Fluctuation Electron Microscopy and Nanoscale Ordering in
Amorphous Materials at U. Illinois, Urbana-Champaign (6/2003).
(33)
Enumeration
of Hypothetical Zeolite Frameworks, Keynote speaker at the North East Corridor
Zeolite Association (NECZA) meeting (12/2003).
(34) Detecting the
Meaningful Spatial Patterns in Structurally Noisy Materials by Fluctuation
Microscopy, Arizona Imaging and Analysis Society, ASU, Tempe (3/2004).
(35) A
sharper view of Randomness? What aberration-corrected imaging of amorphous materials
can
reveal, Savannah, GA (8/2004). (I was unable
to attend at the last minute.)
(36) Extracting the signal
from structurally noisy material, NIRT Workshop on Nanoscale Materials, Tempe,
AZ (12/2004).
(37) Fluctuation Microscopy
for the MASses, invited tutorial (videotaped) at the M&M2005 conference,
Honolulu, (8/2005)
(38) Towards a database of
hypothetical zeolites, invited, PACIFICHEM05, Honolulu, (not given due to
illness) (12/2005).
(39) Fluctuation x-ray
microscopy: What it tells us about medium-range order in self-assembled
materials, APS Users Meeting (5/2006.)
(40) Fluctuation
microscopies with electron, x-ray and optical probes. International
workshop on nanoscale order in amorphous and partially ordered solids,
(7/2007).
(41) Glimpsing order within
the disarray Plenary lecture at the EMAG meeting in Glasgow (8/2007).
(42) Designer zeolites,
Invited talk, symposium on Turning Points in Solid State, Materials and Surface
Science, Fitzwilliam College, (12/2007).
(43) Designer zeolites, workshop
on Design and Synthesis of New Materials, Santa Barbara, (8/2008).
(44) Fluctuation
Microscopy, invited talk at Air Products, Allentown PA (01/2007).
(45) Future Needs for
Microscopy, NAS Workshop CMMP2010, Newport Beach CA (01/2007).
(46) Probing
medium-range structural correlations by fluctuation microscopy, Invited talk,
Symposium, Cambridge UK, (7/2007).
(47) Designer Zeolites,
invited Nanomaterials colloquium at ASU, (10/2007).
(48) What spatial variation
in diffraction tell us about amorphous materials, David Cockayne Symposium, Oxford
(9/2009).
(49) Weeding and Harvesting
Zeolite Graphs, Workshop on Global Optimization of structures, University
College London, (7/2006).
(50) Fluctuation X-ray
Microscopy, APS Users Meeting, Argonne National Laboratory (05/2006).
Seminars
and Colloquia
(1)
Hollow
cone studies of Pt and Pd catalysts, Metal Physics Seminar, Cavendish
Laboratory. (7/1977).
(2)
Weak
beam imaging, Metal Physics General Seminar, Cavendish Laboratory. (2/1978).
(3)
Z-contrast
of Pt and Pd catalysts, Metal Physics Seminar, Cavendish Laboratory. (7/1978).
(4)
Z
contrast imaging in the STEM, Metal Physics Seminar, Cavendish Laboratory.
(7/1979).
(5)
Z
contrast imaging in the STEM, Seminar at IBM T. J. Watson Research Labs.
(7/1979).
(6)
Imaging
With Rutherford Scattered Electrons in the STEM, Seminar at AT&T Bell
Labs. (12/1980).
(7)
Z
contrast imaging in the STEM, Seminar at Cornell University (12/1980).
(8)
TEM
of supported Catalysts, Exxon, Linden, NJ (3/1981).
(9)
Z
contrast, Institut Franais du Ptrole, Paris (2/1982).
(10) Spinodal decomposition
in InGaAsP quaternary semiconductors, Karlsruhe, (10/1981).
(11) Scanning Transmission
Electron Microscopy of Catalysts, Exxon, Linden, NJ (4/1982).
(12) Z contrast in the
Scanning Transmission Electron Microscope, U. Arizona (4/1982).
(13) The Macintosh in an
Electron Microscope Lab., Round Valley Computer Symposium NJ (5/1986).
(14) The Effects of Elastic
Relaxation on TEM Studies of Thinned Composition-Modulated Materials, Exxon
Semiconductor Conference, (1986).
(15) Transmission electron
microscopy of zeolite catalysts, Presentation to President of Exxon Research
& Engineering Co., Clinton, NJ (5/1988).
(16) Characterization of
faulting in zeolites, Seminar at North Western University (5/1989).
(17) Deactivation mechanisms
of the EXAR catalyst, Presentation to President of Exxon Research &
Engineering Co. (7/1989).
(18) Characterization of
faulting in zeolites, Seminar at Penn. State (1/1990).
(19) Imaging with Rutherford
scattered electrons, Seminar at Internal Exxon Conference, Clinton (4/1990).
(20) Z contrast imagining of
supported catalysts, Seminar at NEC Princeton (4/1990).
(21) Electron Microscopy of
Inorganic Solids, Lecture at Princeton Chemistry Department (1990).
(22) Characterization of
defects in Zeolites, Barrer Award Plenary Lecture, British Zeolite Association
meeting, Durham (3/1991).
(23) Imaging with Rutherford
Scattered Electrons in the TEM, NEC Tsukuba, Japan (10/1991).
(24) DIFFaX: A Fortran
Program for Computing Diffraction From faulted Crystals, BioSym Workshop on
Molecular Modeling and Simulation, San Diego (10/1991).
(25) Imaging Complex
Materials Using Rutherford Scattered Electrons in the TEM, Princeton
Electrical Engineering Department, (1/1992).
(26) Atomic Number Imaging
in the Transmission Electron microscope, Workshop on Imaging of Complex Materials, Princeton Materials Institute,
(5/1992).
(27) Combinations, graphs
and zeolite frameworks, NECI Internal colloquium, (11/1993).
(28) From Graphs and Gaping
Holes to Gasoline: A combinatorial Method for Generating New Zeolite
Frameworks, Colloquium, U. Illinois, (11/1995)
(29) The Basics of
Crystallographic Symmetry, lecture to graduate students at U. Illinois
(11/1995).
(30) Variable Coherence
Microscopy: A Rich Source of Structural Information from Disordered Materials,
Cornell (11/1995)
(31) A Combinatorial Method
for generating new zeolites, U. Ohio, Chemistry Department, (1/1996).
(32) A combinatorial method
for generating new zeolite frameworks, NECI (2/1996).
(33) From graphs and gaping
holes to gasoline: a combinatorial method for finding new zeolite frameworks,
U. Maryland, Chemistry Department, (6/1996).
(34) A combinatorial method
for generating new zeolite frameworks'', Stevens Institute of Technology
(4/1996).
(35)
The search for new zeolite frameworks,
Chemistry department, Lehigh University (9/1998).
(36)
Youngs
Modulus of Carbon Nanotubes by TEM, NECI colloquium (01/1999).
(37)
Anomalous
Transmission in Thin Metallic Hole Arrays: A Diffraction Explanation,
Colloquium, NECI. (11/1999).
(38)
Domain
dynamics in Ferroelectrics, NEC Exhibit Miyazaki, Japan (07/1999).
(39)
Domain
dynamics in Ferroelectrics, NEC Ultra-LSI Research Laboratory, Japan
(07/1999).
(40)
Displacement
Charge Patterns and Domain Interlocking in Polyaxial Ferroelectrics, Argonne
National Labs., Illinois (10/2000).
(41)
Youngs
Modulus of Carbon Nanotubes by TEM, Colloquium, U. Illinois, Urbana-Champaign
(6/2000).
(42)
Displacement
Charge Patterns and Domain Interlocking in Polyaxial Ferroelectrics, NECI
Journal Club Talk (11/2000).
(43)
Displacement
Charge Patterns and Domain Interlocking in Polyaxial Ferroelectrics,
Rennselaer Polytechnic (11/2000).
(44)
Speckly
silicon, twitching nanotubes and transparent mirrors: a trio of interesting
scattering experiments Engineering and Physics Dept. U. San Diego (5/2000).
(45)
Youngs
Modulus of Carbon Nanotubes by TEM, Colloquium, Los Alamos National Labs.
(5/2000).
(46)
Anomalous
Transmission in Thin Metallic Hole Arrays: Diffraction vs. Surface Plasmons,
Colloquium, Los Alamos National Labs. (5/2000).
(47)
Determining
the Youngs Modulus of Carbon Nanotubes by watching them twitch, Colloquium,
U. Illinois, Urbana-Champaign, (10/2000).
(48)
Study
of ferroelectric switching by in-situ TEM, colloquium, Argonne National Labs,
Chicago IL, (11/2000)
(49)
Study
of ferroelectric switching by in-situ TEM, colloquium, Rennsaeler Polytechnic,
Troy NY, (11/2000)
(50)
Youngs
Modulus of Carbon Nanotubes by TEM, Colloquium, U. Davis, (10/2001).
(51)
Designability
of carbon cones, NECI seminar, (6/2001).
(52)
In-situ
optical microscopy of switching in ferroelectrics, NECI seminar, (11/2001).
(53)
Anomalous
transmission in thin metallic hole arrays is a diffraction phenomenon, and is
not caused by surface plasmons, NECI seminar, (3/2002).
(54)
Determining
the Youngs modulus of carbon nanotubes in the TEM, seminar at University
College London, (9/2002).
(55)
Determining
the Youngs modulus of carbon nanotubes in the TEM, seminar at Washington
University St. Louis, (9/2002).
(56)
Good
fences make good neighbours. A TEM study of domain switching in
ferroelectrics, seminar at University College London, (11/2002).
(57)
Determining
the Youngs modulus of carbon nanotubes in the TEM, seminar at Purdue
University, W. Lafayette Indiana, (1/2003).
(58)
Do
Surface Plasmons Really Cause Anomalous Transmissions in Metal Hole Arrays?,
seminar at Argonne National Laboratories, (1/2003).
(59)
Determining
the Youngs modulus of carbon nanotubes in the TEM, seminar at Argonne
National Laboratories, (1/2003).
(60)
Determining
the Youngs modulus of carbon nanotubes in the TEM, seminar at Johns Hopkins
University (2/2003).
(61)
Determining
the Youngs modulus of carbon nanotubes in the TEM, seminar at Arizona State
University, (2/2003).
(62)
Enumeration
of Zeolite Frameworks seminar at Solid State Group Conference, Mansfield
College, Oxford, April 7th 2003, (4/2003).
(63)
Enumeration
of Zeolite Frameworks seminar at Arizona State University Chemistry Department,
(5/2003).
(64)
Do
Surface Plasmons Really Cause Anomalous Transmissions in Metal Hole Arrays?,
seminar at Arizona State University Physics Department, (5/2003).
(65) Enumeration of Zeolite
Frameworks seminar at ExxonMobil, Clinton New Jersey, (4/2003).
(66)
Fluctuation
Microscopy: A technique for revealing atomic correlations invited talk at the
SPIE Fluctuations and Noise conference in Santa Fe, (6/2003).
(67)
Finding the meaningful spatial patterns in structural noise
keynote speaker at the first Fluctuation Microscopy Conference,
Urbana-Champaign, Illinois (7/2003).
(68)
Enumeration
of Hypothetical Zeolites, Keynote talk at the North East Corridor Zeolite
Association Annual Meeting, (12/2003).
(69)
Fluctuation
Microscopy: A New Technique for Detecting Order in Structurally Disordered
Materials, Graduate Colloquium, ASU Physics & Astronomy, (2/2004).
(70) Inferring Medium Range
Order in Amorphous Materials from the Structural Fluctuations, Indiana
University, (9/2005).
(71) Fluctuation Microscopy:
A New Technique for Detecting Order in Structurally Disordered Materials,
Graduate Colloquium, ASU Physics & Astronomy, (3/2005).
(72) The search for useful
hypothetical zeolite frameworks, ASU NIRT meeting (04/2007).
(73) Beam transit effects in
single molecule diffraction, Cockayne Research Group (8/2009).
(74) Beam transit effects in
single molecule diffraction, Diamond Coherent Imaging Research Group (9/2009).
(75) Designer Zeolites,
Colloquium, U. Oxford Dept. of Materials (11/2009).
(76) Designer Zeolites,
Colloquium, U. Cambridge Dept. of Materials (11/2009).
(77) Designer Zeolites,
Colloquium, ETH Zurich, Switzerland (12/2009).
(78) Fluctuation
Microscopy, Colloquium U.Vienna, Austria (12/2009).
(79) Designer Zeolites,
Colloquium, U. Southampton Dept. of Chemistry (12/2009).
(1) D. E. W. Vaughan, K. G.
Strohmaier, M. M. J. Treacy and J. M. Newsam, Crystalline Zeolite ECR-35 and a
Method for Producing Same, US Patent Number 5,116,590 May 26, 1992.
(2) M. J. Higgins. A.
Krishnan, M. M. J. Treacy and S. Bhattacharya, Reduction of imprint in
ferroelectric devices using a depoling technique, US Patent Number 6,294,393,
September 25, 2001.
(1) J. M. Newsam and M. M.
J. Treacy, ZeoFile: A Stack of Zeolite Structure Types - HyperCard Stack for
Macintosh, containing an interactive zeolite structure database, with
diffraction analysis software.
(2) M. M. J. Treacy, M. W.
Deem and J. M. Newsam DIFFaX: A
computer Program for Calculating Diffraction From Faulted Crystals - a FORTRAN Program for simulating peak
broadening in diffraction patterns in the presence of stacking faults.
IBM
(1) P. E. Batson and M. M.
J. Treacy, Bulk and Surface Plasmon Charge Location in Small Aluminum
Spheres, IBM Research Report, RC 8349 (#36313) (1980).
EXXON
(1)
M.
M. J. Treacy and J. J. Steger, Influence of Crystallite Size on Catalytic
Performance of One Dimensional Zeolites, CR.24BU.83, (1983).
(2)
A.
J. Jacobson, J. T. Lewandowski, M. M. J. Treacy and J. W. Johnson, Synthesis,
Characterization and Reactions of the Layered Perovskites K[Ca2Na
n-3Nb nO3n+1], n
= 3 to 7, CR.8BT.85, (1985).
(3)
M.
M. J. Treacy and A.K. Ghosh, Z Contrast Study of Pt Agglomeration as a
Deactivation Mechanism of K-Zeolite L Catalyst, CR.17BF.85, (1985).
(4)
A.
K. Ghosh, M. M. J. Treacy and J. J. Steger, Pt Agglomeration in KL Zeolite
With Time on Oil, CR.69BF.85, (1985).
(5)
J.
Y. Koo, M. M. J. Treacy and J. C. Scanlon, Lattice Imaging and Analytical
Electron Microscopy Study of Pt Particles in Spent Pt-KL Zeolite Catalyst,
CR.4BF-X.85, (1985).
(6)
J.
Y. Koo and M. M. J. Treacy, Electron Microscopy Characterization of Pt/KL
Zeolite Catalysts, CR.41BF.86, (1985).
(7)
M.
M. J. Treacy and J. Y. Koo, Microanalysis of K-Zeolite L by Energy Dispersive
X-Ray Spectroscopy in the Transmission Electron Microscope, CR.22BF.85,
(1985).
(8)
M.
M. J. Treacy and S. B. Rice, The Measurement of Particle Sizes in the STEM
Using High-Angle Annular Detector Image Intensities, CR.44BF.86, (1986).
(9)
M.
M. J. Treacy, R. C. Haushalter and S. B. Rice, Transmission Electron
Microscopy Study of the Reaction of Sn94- Zintl Ions with Single Crystal Au Films, (1986).
(10) J. M. Newsam and M. M.
J. Treacy, Proceedings of the Fifth Exxon Zeolite Symposium, CR.69BF.86.
(11) G. M. Brown, J. H.
Butler, C. B. deGruyter, M. M. Disko, S. B. Rice and M. M. J. Treacy,
Conventional and Scanning Transmission Electron Microscopy Study of HF–2
Exar Catalyst Extrudates, CR.4BF-X.86.
(12) M. M. J. Treacy, J. M.
Newsam, W. T. Koetsier and C. B. de Gruyter, Structural Characterization of
Zeolite Beta, CR.2B.88 April 1988
(13) C. B. de Gruyter, J. P.
Verduijn, C. W. M. van Oorschot, S. B. Rice and M. M. J. Treacy, Crystal
Defects and Channel Blockage in Zeolite L, CR.20BF.88 January 1989.
(14) M. M. J. Treacy, J. M.
Newsam and M. W. Deem, Diffraction from Zeolites Containing Planar Faults,
CR.9BT.88 January 1989
(15) M. M. J. Treacy, J. M.
Newsam, R. A. Beyerlein, D. E. W. Vaughan and S. B. Rice, "The Structure
of Zeolite CSZ-1: An Analysis of the Propagation of Stress in Platelet
Crystals" CR.3BT.89 March 1989.
(16) S. B. Rice and M. M. J.
Treacy, Catalyst Particle Sizes from Rutherford Scattered Intensities,
CR11BF.88, May 1988.
NECI
(1)
T.
Ebbesen, M. M. J. Treacy and M. E. Bisher, Elasticity of Carbon Nanotubes,
TN# 95-012N, (1995).
(2)
M.
M. J. Treacy, Thin overlayers of a low-dielectric material can greatly reduce
the effective dielectric constant of a thicker high-dielectric material, sent
to NEC Japan (1994).
(3)
M.
M. J. Treacy, Dynamical diffraction and anomalous light transmission in thin
film optical gratings, TR# 98-033 (1998).
(4)
M.
M. J. Treacy, Zeolite families and their faulty relatives, TR# 98-058 (1998).
(5)
M.
J. Higgins, A. Krishnan, M. M. J. Treacy and S. Bhattacharaya, Writing and
reading submicron features on ferroelectric thin films
(6)
M.
M. J. Treacy, Anomalous Transmission in Thin Film Gratings TR# 99-027 (1999).
(7)
M.
M. J. Treacy, Transmission Anomalies in Hole Arrays: a Diffraction
Explanation TR# 99-007N (1999).
(8)
M.
M. J. Treacy, A Simple Diffraction Explanation of the Anomalous Light
Transmission Properties of Thin Film Optical Gratings TR# 99-001N (1999).
(9)
M.
M. J. Treacy, Elastic Relaxation Phenomena in Thin-Film Ferroelectrics TR#
99-042 (1999).
(10) M. M. J. Treacy, A.
Krishnan, P. Chandra and S. Bhattacharya, Charge on Ferroelectric Domain
Walls TR# 99-048 (1999).
(11) M. M. J. Treacy, Pulsed
Dynamical Diffraction in Metallic Optical Gratings TR# 99-125 (1999).
(12) M. M. J. Treacy, A.
Krishnan and P. Chandra, High-Field Charge Induction and Domain Wall Motion in
Ferroelectrics TR# 99-178 (1999).
(13) A. Krishnan, M. M. J.
Treacy, M. E. Bisher, P. Chandra and P. B. Littlewood,, Displacement Charge
Patterns in Ferroelectrics TR# 99-148 (1999).
(14) M. J. Higgins, A.
Krishnan, S. Bhattacharya and M. M. J. Treacy, Reduction of Imprint in
Ferroelectric Capacitors Using a Simple Depoling Technique TR# 99-001N (2000).
(15) M. M. J. Treacy,
Reification or Rayification? Surface Plasmon and Diffraction Models of the
Transmission Anomalies in Metallic Hole Arrays TR# 99-011N (2000).
(16) M. M. J. Treacy,
Surface Braggons Propagate Light Through Hole Arrays, and Surface Plasmons
Block Light Transmission TR# 99-175 (2000).
(17) P. M. Voyles, M. M. J.
Treacy, H. C. Jin, J. R. Abelson, J. M. Gibson, S. Guha and R. S. Crandall,
Comparative Fluctuation Microscopy Study of Medium-Range Order in Hydrogenated
Amorphous Silicon Deposited by Various Methods TR# 2000-050 (2000).
(18) M. M. J. Treacy,
Nucleation and Growth of Carbon Cones: Graphitic Growth Modes on Large Carbon
Rings TR# 2000-110 (2000).
(19) A. Krishnan, M. M. J.
Treacy, M.E. Bisher, P. Chandra, P. B. Littlewood, Energetics of Charged
Ferroelectric Domain Walls, TR# 2000-134 (2000).
(20) M. J. Higgins, A.
Krishnan, M. M. J. Treacy and S. Bhattacharya, Writing and Reading Submicron
Features on Ferroelectric Thin Films, TR# 2000-142 (2000).
(21) M. J. Higgins, A. Krishnan,
M. M. J. Treacy and S. Bhattacharya, Imaging Ferroelectric Hysteresis in MOCVD
and Sol-Gel PZT Thin Films TR# 2000-157 (2000).
(22) M. M. J. Treacy, Do
surface plasmons enhance transmission in thin metallic hole arrays?
TR#2001-024 (2001).
(23) K.T. Park,
M.M.J. Treacy, M.E. Bisher, Optical Microscopy Evidence For Increased Domain
Jamming With Cycle Time in Ferroelectric Barium Titanate, TR# 2001-006N
(2001).
(24) K. T. Park,
M.M.J. Treacy, M.E. Bisher, Ultra-Violet Light Reduces Domain Jamming in
Ferroelectric Barium Titanate TR# 2001-008N (2001).
(26)
S. Bhattacharya and M. M. J. Treacy, A simple mechanical model of
fatigue in ferroelectric memories (2002).
(27) S.
Bhattacharya, M. J. Higgins, K.-T. Park and M. M. J. Treacy, Aging Phases of
a ferroelectric capacitor. TR#2002-
(2002).
J. M. Newsam & M. M.
J. Treacy, ZeoFile: A Stack of Zeolite Structure Types - HyperCard Stack for
Macintosh, interactive zeolite structure database, with diffraction analysis
software (ZeoFile_pds).
M. M. J. Treacy, M. W.
Deem & J. M. Newsam DIFFaX: a FORTRAN Program for simulating peak
broadening in diffraction patterns from crystals that contain stacking faults.
M. M. J. Treacy, M. D.
Foster, S. Srinivasen and K. H. Randall, TOTOPOL, a C program to compute
geometrical and topological properties of zeolitic frameworks.
Other
(1) M. M. J. Treacy,
The Assassination of President Kennedy: The Facts Among the Fictions.
A summary of the JFK Assassination evidence, plus a summary of personal
findings. The study was motivated by my initial suspicion that there had to be
a vast conspiracy. It became clear that most (if not all) of the conspiracy
theories arise from a basic inability to evaluate evidence. I conclude that
Oswald was indeed the lone assassin, the magic bullet theory is probably
correct, and that there is no reliable evidence of a conspiracy. Privately
circulated (1992).
(2)
M.
M. J. Treacy,
Influence of Dice Bias on the Game of Craps.
The dimples on the faces of some die bias the 6 face, since, being the one
with the most dimples, it is the lightest face. In the game of craps this bias
is found to favor the gamblers, but not quite enough to swing the odds in the
gamblers favor. (Real casinos do not use dice with dimples.) I develop a
simple model accounting for the dice bias, and test it extensively by
experiment. Privately circulated (1993).
(3)
M.
M. J. Treacy
DIFFaX
Manual for the DIFFaX computer program.
115 pages. (1990 – 2005).