Listing all speakers under this section with their speech title and short bios


Photo of Dr. K. Eric Drexler
Dr. K. Eric Drexler
Chief Technical Advisor
Nanorex, Inc.

Bio:

Often described as “the father of nanotechnology,” Eric Drexler set the technical direction for the field in his seminal 1981 paper in the Proceedings of the National Academy of Sciences, which established fundamental principles of molecular engineering and development paths to advanced nanotechnologies. In his 1986 book, Engines of Creation, he introduced a broad audience to the central technology objective: using machines that work at the molecular scale to restructure matter from the bottom up. Drexler’s research in this field has been the basis for numerous journal articles and a comprehensive, physics-based analysis in his textbook Nanosystems: Molecular Machinery, Manufacturing, and Computation. In his publications and lectures, Dr. Drexler describes the implementation and applications of advanced nanotechnologies and shows how they can be used solve, not merely delay, large-scale problems such as global warming.

Presently, Dr. Drexler serves as Chief Technical Advisor to Nanorex, a company developing design software for molecular engineering. He recently served as Chief Technical Consultant to the Technology Roadmap for Productive Nanosystems, a project of the Battelle Memorial Institute and its participating US National Laboratories. He is currently working in a collaboration with the World Wildlife Fund of Sweden to explore technology solutions to global issues such as energy and climate change.

Drexler was awarded a PhD from the Massachusetts Institute of Technology in Molecular Nanotechnology (the first degree of its kind).



Photo of William J. Kroll
William J. Kroll
Matheson Tri-Gas, Inc.
New Jersey's High-Tech Hall of Fame, 2004
Bio:

Bill Kroll's experience spans more than 30 years, including fifteen years of service to Matheson Tri-Gas, Inc.,

Kroll also served as Executive Vice President of Business Development at Emcore, where he was instrumental in taking that company public.

Kroll has penned more than 50 papers in the areas of physical and chemical vapor deposition for semiconductor technology and is a member of IEEE, SEMI, SPIE, SAE, The Electrochemical Society and MRS. He currently serves on the boards of the CGA, AeA, IOMA, Circle of Life, Matheson Tri-Gas, Inc. and Taiyo Nippon Sanso Corporation. Kroll was inducted into the NJ High Tech Hall of Fame in 2004, was named as one of the top 25 Entrepreneurs in NJ by NJ Biz in 2006, was appointed by the Governor of NJ to his Commission on Outsourcing and Off-shoring in 2007 and in October 2007 was awarded the Boy Scouts of America Distinguished Eagle Scout Award as well as being named lifetime member and Trustee of the Boy Scouts of America. Under Kroll’s leadership, Matheson Tri-Gas, Inc. was named Large Company of the Year by the NJ Technology Council in 2006.



Photo of Prof. Mauricio Terrones
Prof. Mauricio Terrones
IPICyT (Mexico)
Leader, National Laboratory for Nanoscience Research
Speech Title: "Defect Nanoengineering: From Basic Research to Applications and Products"
Speech Summary:

It will be demonstrated that different types of defects in carbon nanostructures are responsible of changing significantly the mechanical, electronic, chemical and magnetic properties of the materials. From a theoretical point of view, the structural stablity and electronic properties of different carbon nano-architectures will be discussed in detail. This presentation will also review recent experimental work related to different techniques used to identify defects, and the properties and applications of defective carbon nanostructures. It is important to mention that defects play a key role in the nanomaterials’ physico-chemical properties. However, there are still numerous challenges that will be discussed in this presentation.
Bio:

Born in Mexico City in 1968, obtained his B.Sc. degree in Engineering Physics (Universidad Iberoamericana, Mexico) and his doctorate degree in 1998 (Sussex University, UK) under the suppervision of Sir Prof. Harold W. Kroto (Nobel Laureate, FRS) and David R. M. Walton (FRSC). He has co-authored more than 200 publications in international journals, and counts with more than 5000 independent citations to his work (His H index is 43). He has been awarded the Alexander von Humboldt Fellowship, the Mexican National Prize for Chemistry, the Javed Husain Prize (UNESCO), the TWAS Prize in Engineering, among others. He is member of the Mexican Academy of Sciences and elected Fellow of the TWAS. He is currently full Professor at IPICYT (Mexico), and is leader of the National Laboratory for Nanoscience and Nanotechnology Research (LINAN). His research now concentrates on the theory, synthesis, characterization and applications of novel layered nanomaterials including carbon nanotubes.


Photo of Dr. Zvi Yaniv
Dr. Zvi Yaniv
CEO
Applied Nanotech

Speech Title: "Nanotechnology, managing high-tech in turbulence"
Speech Summary:

More and more nanotechnology companies understand that they find themselves in an economic environment of non-stop turbulence. This turbulence is due to social, economical and technological instabilities such as rapid technological changes, innovation, aggressive globalization and geo-political conflicts.

At Applied Nanotech we continuously strive to identify and address potential threats and recognize new promising opportunities. The principles of managing a nanotechnology company in turbulence and the qualities of leadership needed to succeed will be presented and discussed.
Bio:

Dr. Yaniv is an authority in electro-optics, liquid crystal technology, amorphous semiconductors, technology commercialization and business management. He has published over 100 articles, holds more than 200 patents, and has extensive contacts in the U.S., Europe, Israel and the Far East.

Earlier, Dr. Yaniv held ranking positions with the Practical Engineering College, Beer-Sheeba; National Institute for Technical Training, Tel-Aviv; and Ben-Gurion University of the Negev.

In 1999, Dr. Yaniv introduced a new expression of kinetic art (Digital Window), allowing static two- or three- dimensional artworks to become dynamic and interactive.

In March 2000, Dr. Yaniv was nominated and he accepted the honorific title of Senior Research Fellow of the IC2 Institute of University of Texas.

"Nanotechnology will completely restructure industries and economies and is recognized as technology disruptive to every field. Entire business segments are going to disappear while new exciting segments will be created. Major government initiatives by countries all over the world and large funds have already been committed to win the nanotechnology race."



Photo of John N. Randall, PhD
John N. Randall, PhD
Vice President
Zyvex Labs

Speech Title: "A Path to Productive Nanosystems: Atomically Precise Manufacturing"
Speech Summary:

Productive nanosystems are conceived to be nanoscale devices with the capability to process information, energy, or matter in a useful manner. While there are multiple pathways to achieving such devices, we believe that a manufacturing process based on macroscale tools that can create atomically precise, three dimensional, covalently bonded structures would provide the atomically precise components required for such machinery. The talk will center on an effort to produce such a process that is based on a patterned atomic layer epitaxy. Progress towards developing this technology will be presented as well as some potential early applications.
Bio:

John Randall has over 25 years of experience in Micro- and Nano- Fabrication. He joined Zyvex in March of 2001 after 15 years at Texas Instruments where he worked in high resolution processing for integrated circuits, MEMS, and quantum effect devices. TI assigned him to IMEC in Belgium for two years where he developed optical proximity correction and a taste for Belgian beer. Prior to working at TI, John worked at MIT's Lincoln Laboratory on ion beam and x-ray lithography. He has 84 articles published in refereed journals with > 1410 citations and 24 issued US Patents.

Photo of Dr. Michael T. Postek
Dr. Michael T. Postek
Chief, Precision Engineering Div. & Nanomanufacturing Program Mgr.
National Institute of Standards and Technology (NIST)
Speech Title: "Helium Ion Microscopy and its Potential for Semiconductor Process Measurements"
Speech Summary:

Helium Ion Microscopy (HIM) poses a new paradigm for semiconductor processing and metrology. This methodology presents a new approach to imaging and measurements which appears to have several potential advantages over the traditional scanning electron microscope (SEM) currently in use in research and manufacturing facilities across the world. The HIM has a very high source brightness, and shorter wavelength helium ions with which it is theoretically possible to focus the ion beam into a smaller probe size relative to that of an electron beam of an SEM. Hence, resolution approaching 0.25 nm is theoretically possible. In an SEM, an electron beam interacts with the sample and an array of signals are generated, collected, and imaged. This interaction zone may be quite large depending upon the accelerating voltage and materials involved. Conversely, the helium ion beam interacts with the sample, but it does not have as large an excitation volume and thus the image collected is more surface sensitive and can potentially provide sharp images on a wide range of materials. The current suite of HIM detectors can provide topographic, material, crystallographic, and electrical properties of the sample and as this technique evolves, other detection modes will be developed. Compared to an SEM, the secondary electron yield is quite high - allowing for imaging at extremely low beam currents and the relatively low mass of the helium ion, in contrast to other ion sources such as gallium results in no discernable damage to the sample. This presentation will report on some of the preliminary work being done on the HIM as a research and measurement tool for nanometrology as applied to semiconductor manufacturing at NIST.
Bio:

Dr. Michael T. Postek is the Chief of the Precision Engineering Division and has been the Program Manager of the Nanomanufacturing Program in the Manufacturing Engineering Laboratory at the National Institute of Standards and Technology (NIST). Dr. Postek was also the Assistant to the NIST Director for Nanotechnology and is both a nationally and internationally recognized expert in nanometrology and scanning electron microscope (SEM) critical dimension (CD) metrology.

Dr Postek received his B. A. from the University of South Florida (1973); M. S. from Texas A&M University (1974); Ph.D. from Louisiana State University (1980) and an Executive M. S. in Technology Management from the University of Maryland (1997).


Photo of Paul Patterson
Paul Patterson
GM, IJIA Business Development
Seiko Epson
Speech Title: "Printed Electronics: Emerging Nanotechnology Process"
Speech Summary:

Nano technologies are enabled with Nano materials.  Traditional processing of these Nano materials have been through the use of processes such as CVD, ALD, spin coating and photolithography. These processes are known to require subsequent chemical etching steps which have a negative impact upon our environment.  Inkjet printing is a digitally controlled additive process, not requiring screens or etching.  From the first inkjet printed polymer OLED display in 1996 to the Gen 8 inkjet printed color filter production line at Sharp, Epson has leveraged our piezo technology to develop numerous inkjet printed semiconductor and related technologies. This presentation will review some of those milestones and reveal additional technologies enabling devices which utilize Nano materials.
Bio:

General Manager for Seiko Epson Corporation (Epson), Japan, responsible for analyzing and developing industry collaborations for emerging technologies which compliment Epson's core competencies. Serves a role akin to that of Vice President of Business Development whereby monitoring and mapping emerging materials, processes, intellectual property, markets, and applications. Creates and manages relationships with innovative organizations throughout the emerging printed electronics industry. His responsibilities include monitoring and nurturing emerging technologies in displays, semiconductors, RFID, biotech, nanotech, and optical⁄data communications technology sectors. Is a frequent speaker at emerging technology and business conferences. Additionally, Mr Patterson serves on a few technology start-up advisor boards.


Photo of Prof Moon Kim
Dr. Moon Kim
Professor - Department of Materials Science and Engineering
University of Texas at Dallas
Speech Title: "Nano-X for Nanoelectronics"
Speech Summary:

As the scaling of silicon integrated circuits continues, the future of electronics will rely on both top-down and bottom-up approaches. In addressing both of these approaches, nanoscale fabrication, manipulation and characterization become ever more important. This talk will present our recent research efforts on several key electronic material systems of current and future interests, including the fabrication and characterization of electrical test structures with various individual one dimensional nanostructures such as nanotubes and nanowires, and in-situ manipulation of such nanostructures for the fabrication of functional three dimensional devices.

Bio:

A Professor in the Department of Materials Science and Engineering at University of Texas at Dallas, Dr. Moon Kim is the Director of UTD's new Nano-Characterization Facility. Dr. Kim is also an adjunct professor in the Simmons Comprehensive Cancer Center at the UT Southwestern Medical Center. Dr. Kim's expertise includes high resolution electron microscopy, heterogeneous materials integration by wafer bonding. He has authored/co-authored over 150 refereed papers. His primary research focus is nano-fabrication and the manipulation and characterization of materials for nano-electronic and functional 3D nanostrucutured system applications.


Photo of Alan Rae
Dr. Alan Rae
Consultant
Epik Energy Solutions LLC
Speech Title: "Nanotechnologies in Oil and Gas Exploration and Production"
Speech Summary:

As the demands on oil and gas exploration and production (E&P) equipment and systems increase due to deeper water, higher temperatures, sour wells, unconventional reservoirs and other factors, materials challenges start to multiply both in downhole equipment and subsequent processing of process fluids, water and oil in an efficient and environmentally responsible way. Nanotechnologies allow us to enhance the properties of materials and systems in a cost-effective way to meet these challenges. Epik Energy Solutions was formed in June 2007 as a joint venture between NanoDynamics Inc and Shell Technology Ventures Fund 1 B.V. to address E&P challenges and this paper will illustrate promising short and medium term solutions with illustrations and examples from projects carried out by Epik Energy.
Bio:

Alan Rae is VP of Technology at NanoDynamics Inc.and a Consultant to Epik Energy Solutions LLC. While with Cookson Group plc between 1979 and 2004 he was instrumental in ensuring the success of startup and developed businesses including structural ceramics, flame retardants, refractories, electronic ceramics and wafer plating systems. From 1999 to 2004 he was VP of Technology for Cookson Electronics, deeply involved in developing business opportunities for materials systems and equipment in silicon wafer fabrication, packaging, circuit board manufacture, circuit board assembly and recycling. He is Director of Research for iNEMI Inc. (the International Electronics Manufacturing Initiative), a member and past Chair of the JISSO North America Committee (facilitating electronics business worldwide by harmonizing technology roadmaps and standards), a member of the Industrial Advisory Board of SMTA (the Surface Mount Technology Association) and a member of the editorial Board of the Bulletin of the American Ceramic Society . He is a member of the ANSI-Accredited US TAG to ISO TC229 (Nanotechnologies) and IEC TC113 "Nanotechnology standardization for electrical and electronic products and systems." Dr. Rae holds a Bachelor′s Degree from the University of Aberdeen and a Ph.D. and M.B.A. from the University of Newcastle upon Tyne. He is a member of the Royal Society of Chemistry and a Chartered Chemist.


Photo of Yoshikazu Nakayama
Yoshikazu Nakayama
Professor, Dept. of Mechanical Engineering
Osaka University
Speech Title: "Intermolecular Sticking Properties of Carbon Nnanotubes"
Speech Summary:

We have investigated sliding force between two carbon nanotubes (CNTs) and CNT plane fasteners as its application. The measurement of the internanotube sliding force shows that CNTs grown by chemical vapor deposition cause the friction force depending on the overlapping length, while highly crystalline CNTs provide only the van der Waals force. We here propose a CNT plane fastener that consists of two brush-like CNTs sheets and functions like so-called “hook-and-loop fastener”. The fastening strength arising from the friction force was measured to be higher than 18 N/cm2, comparable to or higher than the conventional fabric hook-and-loop fastener.
Bio:

Yoshikazu Nakayama received his B.S. in Electric Engineering from Osaka Prefecture University in 1972, and Ph.D. in Applied Physics from Osaka University in 1985. He joined Matsushita Electric Industry Co., Ltd in 1972, and moved to Osaka Prefecture University in 1979. In 1992 and 1993 he was a visiting scholar at University of Chicago. He was appointed to the position of professor at Osaka Prefecture University in 1995, and appointed to the position of professor at Osaka University in 2006. His current interests involve in the nanoscience and nanotechnology using carbon-based nanomaterials.


Photo of Edward S. Kolesar, PhD, P.E.
Edward S. Kolesar, PhD, P.E.
W.A. Moncrief Professor of Engineering
Texas Christian University
Speech Title: "Precise Bi-Directional Motion Achieved with an Electrothermally-Actutated MEMS Microengine"
Speech Summary:

The design, modeling, development, and performance evaluation of a micro-scale microengine capable of precise and high-resolution bi-directional motion will be described. The microengine is operated with arrays of MEMS asymmetrical electrothermal microactuators that are synchronously activated with a computer-generated set of electronic signals. The microengine can be configured for linear motion, spanning a dynamic range of 1 mm, and when coupled to a set of 100-micron diameter gears, rotation can be realized. A video will be used to demonstrate the operation of both modes of the microengine.

This research is focused on the design and experimental characterization of an electrothermal microengine that is capable of bi-directional motion. The microengine is operated with arrays of MEMS asymmetrical electrothermal microactuators that are synchronously activated. The fundamental MEMS polysilicon electrothermal microactuator uses resistive (Joule) heating to generate thermal expansion and movement. In a conventional planar asymmetrical electrothermal microactuator, the “hot” arm is positioned parallel to the “cold” arm, but since the “hot” arm is narrower than the “cold” arm, the electrical resistance of the “hot” arm is greater. When an electrical current passes through the electrothermal microactuator (through the series connected electrical resistance of the “hot” and “cold” arms), the “hot” arm is heated to a higher temperature than the “cold” arm. This temperature increase causes the “hot” arm to expand along its length, thus forcing the tip of the device to rotate about its mechanical flexure element. The practical integration of arrays of MEMS electrothermal microactuators to realize a monolithic microengine is presented. The microengine has been operated to control the position of a linear mechanical shuttle and rotate a set of gears.

Bio:

Dr. Kolesar has 27 years of experience and devotion to the design, fabrication, modeling and experimental characterization of microsensors and microactuators. This experience was first gained while serving as a commissioned officer in the United States Air Force, and since 1993, as the W. A. Moncrief Professor of Engineering at Texas Christian University (TCU). His current research includes microelectromechanical systems (MEMS), silicon micromachined gas chromatography systems, and organic semiconductors. DARPA, the NSF, and several Metroplex corporations fund his research. He lectures and publishes nationally and internationally on MEMS and is a member of numerous professional societies.


Photo of Phil Bryson
Phil Bryson
Chief Operating Officer
Xitronix Corporation
Photo of Dr. Will Chism
Dr. Will Chism
Inventor, Research Scientist
Xitronix Corporation
Speech Title: "Polarization Modulation Photo-Reflectance: Metrology for Strained-Silicon and Ultra Shallow Junctions Technologies"
Speech Summary:

In this presentation, the capabilities of PMPR are discussed in the context of the emerging requirement for process control related to s-Si in transistor channels and dopant activation in USJs. A summary of the technical path to the current metrology gap is provided and an overview of PMPR principles is introduced. Subsequently, data is provided validating the capability of PMPR to meet or exceed the metrology requirements for these two critical and widely proliferated process technologies in nanoscale semiconductor manufacturing. Additionally, a top-level financial analysis of the loss to advanced chip manufacturers due to the historical unavailability of adequate metrology is provided.


Bio:

Phil has twenty five years of semiconductor industry experience including executive management, business development, yield engineering, chip manufacturing, and materials research.
Mr. Bryson has held a number of positions in his career, including key roles at Tokyo Electron, KLA-Tencor, and Motorola.
Mr. Bryson holds a B.S. Degree in Chemistry and Materials Research

Bio:

Dr. Will Chism is the inventor of Xitronix’ Polarization Modulation Photo-Reflectance technologies for process control of semiconductor nanomanufacturing. Dr. Chism has also implemented and executed the intellectual property strategy at Xitronix.

Prior to founding Xitronix, Will was the lead research scientist and project manager for the International Sematech Advanced Metrology Development project.

Dr. Chism holds a PhD in Physics from the University of Texas at Austin.



Photo of Dr. Shane C. Woody
Dr. Shane C. Woody
Cofounder & Principal Investigator
InsituTec Inc.
Speech Title: "Self Sensing Assembly Tool Employing Standing Wave Technology"
Speech Summary:

Presentation will address a new class of nano and microscale tool employing standing wave technology. In general, the standing wave technology enables microscale and nanoscale tools to overcome adhesion forces often observed at the nanoscale level while also providing repeatable nanoNewton force sensing characteristics. Presently, researchers are developing sensor diameters of 7 μm and aspect ratios exceeding 500:1. Future steps plan to reduce the technology down by an order of magnitude. The company is currently addressing commercial efforts in advanced manufacturing including both metrology and robotic pick and place tools. The presentation will include a general overview of the technology, recent experimental work and related applications in advanced manufacturing.

Bio:

Dr. Woody has received numerous awards and grants such as being named one of Charlotte’s top 40 young entrepreneurs in 2007, recipient of business development grant from North Carolina’s Science Board and Technology, and an NCIDEA grant. He is also the recipient of numerous innovation research grants such as Lemelson’s Foundation’s National Collegiate Inventors Award and NASA ‘s prestigious graduate research award. Dr. Woody manages projects ranging from microsensing development to microscale pick and place to in-process instrumentation integration. These efforts have accumulated 2 Patents, 10 Pending patents, multiple publications including peer reviewed journal articles, conference proceedings, and tradeshow articles in precision instrumentation.


Photo of Dr. Ali Aliev
Dr. Ali E. Aliev
Researcher
UTD NanoTech Institute

Speech Title: "Enhanced Thermal Conductivity of Carbon Nanotubes for Heat Management"
Speech Summary:

This talk will give an overview of the thermal transport in carbon nanotubes and their applications for thermal management. The low quality of CVD grown nanotubes, weak interconnections in ropes and quenching of phonon modes in bundles are substantially reduce the transport properties of carbon nantotubes. The unbundling of MWNT ropes can substantially increase the thermal conductivity of assembly. Using electrostatic potential and dynamic resonance shacking we demonstrate the unbundling of ropes which lead to enhanced thermal conductivity of whole assembly.
Bio:

Research interests focused on nanoscience, nanotechnology, phonon engineering and thermal transport. Recipient of the 2006 NanoVic Prize for Innovation in Nanotechnology from Nanotechnology Victoria, Australia. Recipient of numerous awards from Republic of Uzbekistan for "Development of Nanomaterials and Nanotechnology." Numerous publications to his credit in the last two years.


Photo of Prof. Dr. Steffen Pilotek
Dr. Steffen Pilotek
Business Development Director - PARTEC
Buhler, Inc.

Speech Title: "Chemomechanical Processing of Agglomerated Inorganic Nanoparticles"
Speech Summary:

The unique potential of inorganic nanoparticles can only be utilized in real-world applications if an excellent state of dispersion is accomplished in the product formulation.

We present the chemomechanical process as an efficient way to disperse agglomerated nanopowders into valuable nano-additives. The process includes wet-chemical surface modification of nanopowders under well-defined mechanical stress conditions. It is important to adjust the process parameters specifically to the individual product formulation. Using the chemomechanical process we are able to produce high-concentration, low viscosity, and transparent nanoparticle dispersions in industrially relevant scale.
Bio:

Steffen Pilotek studied chemistry and received his Dipl.-Chem. and Dr. rer. nat. from the Universitat Bielefeld (Germany). After working as a researcher at the Institute for New Materials (INM, Saarbrucken) for two years, he joined the nanotechnology group of Buhler AG (Switzerland) in 2002 where he started as development manager and became senior manager in the newly established subsidiary of Buhler PARTEC GmbH. Since 2007 he works for Buhler Inc. (U.S.A.) as Business Development Director Particle Technology (PARTEC).


Photo of Prof. Dr. Donald Hayes
Dr. Donald Hayes
Founder
MicroFab Technologies, Inc.

Speech Title: "Printed Electronics utilizing Ink Jet Technology"
Speech Summary:

Printed Electronics is moving from R&D to Manufacturing in a wide range of Commercial Markets. Many applications utilize more than one printing technologies and in many cases, one of these is ink jet printing. Recent demonstrations of ink jet printed color OLED display panels, solar cells, fuel cells, other power sources, organic transistors, conductors, RFID tags, embedded resistors & inductors, electronic packaging (IC, Photonic, and MEMS) and sensors underline the spreading contention that ink jet technology is a key enabler for printable electronic manufacturing. Most of these applications require the printing of polymers or polymer solutions: conductive and semiconductive polymers, dielectrics, light emitting polymers, color filters and bio-materials. Many of these applications are also enabled by developments of nano-particle and micro-size particle inks.
Bio:

Donald J. Hayes holds a B.S. and M.S. in Physics from Louisiana State University and a Ph.D. in Materials Science from Rice University. He has over 30 years experience managing research and development of process driven manufacturing for ink-jet printers, semiconductor devices, and electronic assemblies while at MicroFab, Polaroid, Mead Office Systems, Texas Instruments, and Boeing. Dr. Hayes has been awarded 58 U.S. patents and has 3 patent applications outstanding. He is a member of the Engineering Counsel for the Eric Johnson School of Engineering at the Univ. of Texas at Dallas and a member of the Industrial Advisory Committee at the University of Arkansas.
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Dr. Hayes founded MicroFab Technologies, Inc. in 1984 as a research and development company focusing on applications of ink jet technology.


Photo of Prof. Dr. Donald Hayes
Anthony S. Wagner
Chief Technical Officer
Clean Technologies International Corp.

Bio:

Mr. Wagner is the inventor, with over 50 issued patents, of the high volume production of 100% pure carbon nanomaterials, including SWNT, MWNT, CNF and many other types of nanomaterials. It is the creation of the novel carbon nanosphere chains, microns long fibers, that has allowed for the production of the world’s first and only very strong, electrically conductive, carbon nanothreads.
Mr. Wagner has developed a carbon nonmaterial polymerization production process that will produce tons of these superior carbon nanosphere chains.

Photo of Dr. S. K. S. Parashar
Dr. S. K. S. Parashar
Professor & HOD, Department of Physics
KONARK Institute of Science & Technology
Speech Title: "Glimpses of PZT Based Nanoferroelectrics"
Speech Summary:

The control of physical properties and microstructure/structure by restricting the particle size at the nanoscale is one of the novel approaches that has evolved as the new trend setter for achieving novelty in the performance characteristics of a material system and the devices based on it. The present work aims at the study of the effect of crystallite size on properties having perovskite structure ABO3 based on lead zirconate titanate Pb(Zr0.53Ti0.47)O3 (PZT) and its various modified forms by different dopants (Sm+3, Gd+3, Nd+3 and Zn+2) at the A site.
The observed change in physical properties of nanosystems, when compared to their bulk counterparts, is a phenomenon that has been attributed primarily to size effect. The basic reason for an overall change in physical properties of nanosystems, on reduction of crystallite dimension, is attributed to the increase in the ratio of surface area to volume. This change brings significant modification in the arrangement of atoms, ions and density of states in the system that in turn modulates the material structure/microstructure. This modification ultimately manifests in significant changes in the system’s physical properties predominately governed by crystallite size lying below a specific critical length (i.e., crystallite size ≤ 50 nm).
The size effect mechanism developed here gives insight into the complicated behavior of ferroelectrics (dielectrics, complex impedance spectroscopy, electrical conduction, mechanical etc.) and provides a starting-point for the development of high dielectric materials and device applications.

Bio:

Key scientist with highly respected research group, focused on ferroelectric memories and fundamental aspects of nanomaterials and synthesis. Brings extensive studies in physics, meteorology and chemistry.


Photo of Dr. Tim Dallas
Dr. Tim Dallas
Associate Professor, Electrical & Computer Engineering
Texas Tech University

Speech Title: "Dynamic MEMS"
Speech Summary:

MEMS have made their way into many high-tech applications by providing superior performance at reasonable costs. To this point, most commercial devices operate with very little motion in their mechanical components. There are a number of areas where miniaturized dynamic mechanical systems would open up new applications and allow cost reductions. We will discuss a number of MEMS we are developing that utilize complex mechanical systems (micromotors, gears, etc.) to accomplish important tasks spanning medical devices to analytical tools.
Bio:

Dr. Tim Dallas is an Associate Professor of Electrical and Computer Engineering at Texas Tech University. His research includes the development of innovative MEMS devices and understanding the fundamental aspects of stiction. He is the principal developer of TTU’s MEMS courses., serves on the governing board of the TEXMEMS conference, and was co-chair for SEMATECH’s MEMS TWG, part of Texas’ State Strategy on Advanced Technologies. Prof. Dallas received a B.A. in physics from the University of Chicago and a PhD from Texas Tech in physics. He has worked as a Technology Engineer for ISI Lithography and was a post-doctoral researcher in at the University of Texas.


Photo of Teena James
Teena James
Dept of Biomedical Engineering
Microelectronics Research Center, New Jersey Institute of Technology
Photo of Manu Sebastian Mannoor
Manu Sebastian Mannoor
Dept of Biomedical Engineering
Microelectronics Research Center, New Jersey Institute of Technology
Speech Title: "Ultra Sensitive Capacitive Sensor with Nano-scale Electrode Spacing for Label-free DNA Detection"
Speech Summary:

Nanotechnology is playing an increasingly important role in the development of biosensors. Shrinking of the sensor components to the size scale of the molecules being sensed improves the detection sensitivity immensely. Such nano scale devices for capacitive detection of DNA hybridization is fabricated in our laboratory and the resutls demonstrates their ability to provide highly sensitive, label-free, high throughput analysis of nucleic acid sample. The use of 20 nm electrode spacing between capactive electrodes resulted in the overlaping of the electrical double layer which occupied the major volume of the capacitive region.
Bio:

Teena James and Manu Sebastian Mannoor are graduate students in the Department of Biomedical Engineering at New Jersey Institute of Technology and are currently working as Graduate Research Assistants at the Microelectronics Research Center of NJIT.


Photo of Javad Foroughi
Javad Foroughi
Intelligent Polymer Research Institute (IPRI) and ARC Centre of Excellence for Electromaterials Science (ACES)
University of Wollongong, Australia
Speech Title: "How artificial muscles can be improved using polypyrrole"
Speech Summary:

To develop artificial muscles polypyrrole(Ppy) has been fabricated for the first time in to fibres and Ppy cast films from chemically polymerized of pyrrole. Their use in a range of electrochemical configurations including electronic-textiles and artificial muscle nano-structures has been evaluated.

A comparison of chemically prepared and electrochemically prepared polypyrrole films and fibres for artificial muscles.

Bio:

Javad Foroughi is a PhD Candidate at the Intelligent Polymer Research Institute (IPRI) and ARC Centre of Excellence for Electromaterials Science (ACES), University of Wollongong, Australia. His Research Project is titled “Development of Actuators by use of Polypyrrole and Polyaniline Fibres” and his supervisors are Prof.Geoffrey Spinks and Prof.Gordon Wallace

His prizes and honours include receiving the No. 1 of B.Sc. degree in University and the research license from Ministry of Industries and Mines of Iran.


Photo of Fred Patterson
Fred Patterson
President
The Commercialzation Funding Coach, Inc.
Speech Title: "Federal and State Grant Opportunities for Nanotechnology Development"
Speech Summary:

Finding outside investment for technology development is always difficult. Investors are looking for opportunities where the company’s suitability for funding is measured by the combination of high technology readiness and business maturity given that the market potential for revenue production is promising. But getting the technology to a high enough readiness state to attract investors also requires funding. Federal and State grant sources exist for funding early (seed) stage nanotechnology development, including SBIR/STTR and technology commercialization accelerator funding offered by several states including Texas.

In this talk, Fred Patterson (known nationally as The SBIR Coach) will identify opportunities for grant funding specifically focused on nanotechnology development, both from Federal (SBIR and other Federal Agency R&D programs) and State (including the Texas Emerging Technology Fund) sources. These grant awards tend to be very competitive, with fewer than 15% of the applications being funded. So, in addition to identifying sources, Fred will present some of the strategies he has used with his companies and clients in successfully competing for these awards.

Bio:

Fred Patterson (“The SBIR Coach”) has been involved with guiding companies through technology development into commercialization for over forty years, including having worked with the SBIR Program and all of its aspects virtually since its inception. In addition to SBIR and other Federal government sponsored funding programs, Fred also works with several State sponsored technology accelerator initiatives, including the Texas Emerging Technology Fund. Fred also works with many Angel, Venture Capital, and other private sector investment sources to help his clients prepare for the challenges of seeking, securing, and managing funding for commercialization and growth.




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