Who am I? Jerzy Leszczynski Professor of Chemistry and

Slides:



Advertisements
Similar presentations
Current and Resistance JH
Advertisements

Master: Sergei Petrosian Supervisor: Professor Avto Tavkhelidze.
PH0101 UNIT-5 LECTURE 3 Introduction
What do you think is Liang doing?. Nano-Energy Laboratory  Principal Investigator: Dr. Choongho Yu  Graduate Assistants: Liang Yin, Yeontack Ryu,
Carrier Transport Phenomena
Physics 121: Electricity & Magnetism – Lecture 6 Carsten Denker NJIT Physics Department Center for Solar–Terrestrial Research.
Motivati on. Energy and Nanotechnology Gang Chen Rohsenow Heat and Mass Transfer Laboratory Mechanical Engineering Department Massachusetts Institute.
Chapter V July 15, 2015 Junctions of Photovoltaics.
Jacob McKenzie, Ty Nowotny, Colin Neunuebel
MIPD Small-scale energy harvesting device LIUJIN.
Problem 6. Seebeck effect.
Computational Approaches Computational Approaches
Thermoelectricity of Semiconductors
Chemistry XXI M2. Inducing Electron Transitions. M1. Controlling Electron Transfer Analyze electron transfer between coupled systems. Explore the effect.
Nanostructured Materials for Thermoelectric Power Generation Richard B. Kaner 1, Sabah K. Bux 1,3, and Jean-Pierre Fleurial 3 1 Department of Chemistry.

Journal Club 13 July 2011 Tuğrul Çağrı CİNKARA. MIT, mechanical engineering.
1 ME 381R Fall 2003 Micro-Nano Scale Thermal-Fluid Science and Technology Lecture 15: Introduction to Thermoelectric Energy Conversion (Reading: Handout)
Novel Thermoelectric Characterization Tool: Gated Seebeck Cynthia Chen February 7, 2013 MURI Informal Meeting.
1 ME 381R Lecture 17: Introduction to Thermoelectric Energy Conversion (Reading: Handout) Dr. Uttam Ghoshal NanoCoolers, Inc. Austin, TX 78735
Plasma Application LAB Wide range dielectric spectroscopy of ZnO-based varistors as a function of sintering time 발표자 : 권득철.
Simulation of transport in silicon devices at atomistic level Introduction Properties of homogeneous silicon Properties of pn junction Properties of MOSFET.
Thermoelectric Energy Conversion Roberto Dimaliwat, Galena Park High School Galena Park ISD Professor/mentor Choongho Yu, PH.D Mechanical Engineering.
Atomic-Scale Mapping of Thermoelectric Power on Graphene: Role of Defects and Boundaries CNMS Staff Science Highlight Scientific Achievement Significance.
Brazilian Tunable Filter Imager (BTFI) Preliminary Design Review (PDR)‏ USP-IAG Universidade de São Paulo 18-19th June 2008 Julian David Rodriguez Javier.
Nanostructured Thermoelectric Materials
Solution Processing of Bismuth Telluride and its Alloys for Improving Thermoelectric Properties Zhongfen Ding Department of Chemistry and Biochemistry.
Example: Magnetic field control of the conducting and orbital phases of layered ruthenates, J. Karpus et al., Phys. Rev. Lett. 93, (2004)  Used.
STEF-NANO-ACC Stimulating, Encouraging and Facilitating the Participation of ACC Nanotechnology and Nanoscience Research Organisations To FP6 Topic:
Lecture 4.0 Properties of Metals. Importance to Silicon Chips Metal Delamination –Thermal expansion failures Chip Cooling- Device Density –Heat Capacity.
Matthew Lane, Professor J. Staunton.
+ Science 9 – Final Exam Preparation Mr. Francis.
U NIT D E LECTRICAL P RINCIPLES & T ECHNOLOGIES Science 9.
Date of download: 6/28/2016 Copyright © ASME. All rights reserved. From: Convective Heat Transfer and Contact Resistances Effects on Performance of Conventional.
1 Nanoscale Modeling and Computational Infrastructure ___________________________ Ananth Grama Professor of Computer Science, Associate Director, PRISM.
Polymer-based Thermoelectric Devices School of Chemical Engineering Purdue University Thursday August 7, 2014 Stuart W. A. Hilsmier, Edward P. Tomlinson,
First steps towards the PhD thesis
學生: 蔡輔安 指導教授: 廖洺漢 台灣大學 機械系 2017/04/23
Thermoelectric Modules (TEM)
Date of download: 10/9/2017 Copyright © ASME. All rights reserved.
Thermo-electric refrigeration.
Contact Resistance Modeling and Analysis of HEMT Devices S. H. Park, H
Prospective Thermoelectric Tellurides
Nanowire Thermoelectrics for Energy Conversion
Development of a Thermoelectric Cooling Prototype
“Low Field”  Ohm’s “Law” holds J  σE or vd  μE
Fabrication of Nanoscale Multilayered Thin Film-Based Integrated Thermoelectric Devices for Highly-Efficient Thermal-to-Electrical Energy Conversion and.
Contact Resistance Modeling in HEMT Devices
Date of download: 12/19/2017 Copyright © ASME. All rights reserved.
Date of download: 12/19/2017 Copyright © ASME. All rights reserved.
Electrical Properties of Materials
Nano for Energy Increased surface area Interface and size effects
Comprehensive Atomistic Modeling of Thermoelectric Semiconductor Nanowire Heterostructures Joshua Schrier, Department of Chemistry, Haverford College,
  (Vfinal – Vinitial)/Vinitial
Atomistic simulations of contact physics Alejandro Strachan Materials Engineering PRISM, Fall 2007.
Atomistic materials simulations at The DoE NNSA/PSAAP PRISM Center
Semiconductor Device Physics
Interfacial Electron Transfer One Molecule at a Time Oliver L.A. Monti
A.N. Lasseigne-Jackson1, B. Mishra2, D.L. Olson2, and J.E. Jackson2
Interfacial Electron Transfer One Molecule at a Time Oliver L.A. Monti
Electricity unit test.
Volume 1, Issue 4, Pages (December 2017)
Motivation.
Thermal Sensors Q = mcT, where Q is the amount of heat in J, T is temperature in K, m is the mass in kg, c is the specific heat capacity in J/(Kg.K), and.
Benchmark #1 Review.
Volume 1, Issue 4, Pages (December 2017)
Glass-like Thermal Conductivity in Epitaxial Oxygen-Vacancy-Ordered Oxide Films UMN MRSEC Award DMR# Xiaojia Wang (IRG-2) & Chris Leighton.
Computed Tomography (C.T)
Fig. 5 Thermoelectric performance of pristine Bi2Se3 nanoplate and the heterostructure. Thermoelectric performance of pristine Bi2Se3 nanoplate and the.
Yokohama National University T.Ozaki and H.Nakatsugawa
Presentation transcript:

Who am I? Jerzy Leszczynski Professor of Chemistry and President’s Distinguished Fellow Jackson State University

In Search of Novel Materials for Naval Applications Effect of Interface Reconstruction on the Mechanical Properties of Al/Al2O3 Multilayers Objective Investigation of electronic structure and mechanical properties of Al/Al2O3 composite Prediction of effect of interfacial orientation on the physical properties of composite Accomplishment Obtained the most energetically favorable α-Al/γ- Al2O3 interfacial atomic structure based on computed decohesive energies using DFT The improved thermo-electric conversion efficiency of Al/Al2O3 interface has been explored by employing non-equilibrium green function (NEGF) formalism coupled with DFT Variation of thermoelectric figure of merit (ZT) and Seebeck coefficient (S) with Fermi energy (EF ) at different temperatures Current-Voltage Characteristics Scientific Impact/ Results Results The proposed thermo-electric generator based on α-Al/γ-Al2O3 interface shows an improved efficiency that can be utilized for the cooling of electronic devices as well as for electrification of ships, submarines, and land vehicles Optimized structure of Al/Al2O3 interface The analyses of differential potential, difference density, and density of states manifest a significant charge transfer across the interface Electrostatic differential potential Strong orbital overlapping plays the pivotal role in attaining low resistance The interface induces ultralow phonon thermal conductivity Electron difference density The enhancement of temperature increases the ZT value which mainly originates from the increased power factor of the device

Why do I think I was successful in the proposal submission process? I carefully read the BAA Contacted Program Director Look for Info Related to Navy Needs and Challenges Contacted Researcher at the Navy Lab Discussed his Research and my Expertize Established Area of Common Interest and Navy Relevance Developed Pre-proposal Contacted Again Program Director Obtained Letter of Support from the Navy Lab and Submitted Pre-proposal After Receiving Feed-back on Pre-proposal Used all Comments to Prepare Final Proposal