WELCOME. ELECTRONIC CIRCITS USING GRAPHENE CONTENTS ABSTRACT INTRODUCTION TO GRAPHENE HISTORY OF GRAPHENE IN ELCTRONIC CIRCUITS FABRICATION OF GRAPHENE.

Slides:

Advertisements

Similar presentations

A computer uses electric current to process information.

Advertisements

Topical lecture: Quantum Size Effects in Nanostructures A. Tavkhelidze Ilia State University.

Integrated Circuits (ICs)

GRAPHENE TRANSISTORS AND MEMORY. MOORE’S LAW THE PROBLEM 1. Reduction in saturation mode drain current. 2. Variation in Carrier velocity. 3. Modification.

Nanotechnology for Electronics and Sensors BIOE298dp ( )

Carbon Nanotube Memory Yong Tang 04/26/2005 EE 666 Advanced Solid State Device.

Carbon Nanotube Memory Ricky Taing. Outline Motivation for NRAM Comparison of Memory NRAM Technology Carbon Nanotubes Device Operation Evaluation Current.

Institute of Optics, University of Rochester1 Carbon Nanotubes: theory and applications Yijing Fu 1, Qing Yu 2 1 Institute of Optics, University of Rochester.

Chemical Bonding of Carbon Nanotubes

Gaxela N, Manaetja K.P, Mulaudzi S, Senosi R Supervisor: Dr V.L.Katkof.

 Nanotechnology  Fundamentals  Semiconductor electronics & Nanoelectronics  Milestones in nanohistory  Approaches to Nanoelectronics.

L03B: Chapter 3 (continued) Note that an understanding of crystal structure is essential for doing well in the rest of this course. So you should be reading.

BASICS OF ELECTRICITY Vocabulary Understanding of Layer 1 & Layer 2 Networking Professionals need a basic understanding.

Nanotubes In The Name Of Allah excitons in single – walled carbon nanotubes nasim moradi graduate student of atomic and molEcular physics.

Keeping Up with Moore’s Law Who the heck is this Moore guy anyway? Gordon E. Moore was the cofounder of Intel Corporation Gordon E. Moore was the cofounder.

JUN YAN UNIVERSITY OF MASSACHUSETTS AMHERST 2015 SUMMER INSTITUE ON NANOSCIENCE.

Supported by NSF DMR Yale University Creating new devices using oxide materials Boron is surprising versatile in the bonding networks it forms.

Atomic Structural Response to External Strain for AGNRs Wenfu Liao & Guanghui Zhou KITPC Program—Molecular Junctions Supported by NSFC under Grant No.

08/14/11 presentation by Nuwan Liyanage.  Introduction  Four Generations of Nanotechnology  Nanofactory  Nanoassembler  Did You Know?  Nanowires.

PROPERTIES OF CARBON NANOTUBES

Presented By: RENJITHKUMAR TKMCE KOLLAM. INTRODUCTION Electronics with out silicon is unbelievable, but it will come true with evolution of diamond or.

School of Mathematical Sciences Life Impact The University of Adelaide Nanocomputing memory devices and logic gates formed from carbon nanotubes and metallofullerenes.

Center for Materials for Information Technology an NSF Materials Science and Engineering Center Nanolithography Lecture 15 G.J. Mankey

4 He and Kr Adsorbed on a Single Carbon Nanotube Oscar E. Vilches, University of Washington, DMR We study the thermal properties of rare gases.

Carbon nanotube is a magic material. The unique structure brings it amazing characteristics. Lots of people believe that the usage of carbon nanotube will.

Carbon Nanotubes Related Devices and Applications

Nanotechnology for Electronics and Sensors BIOE198dp ( )

Nanoscience and ICT. What do the Apollo mission spacecraft to the moon and a washing machine have in common? Same amount of computing power! Technology.

Nanoscience and Materials $ $ $ $199 These advances in technology would not have been possible without nanotechnology.

1 The more awaited revolution.  Electronics without silicon is unbelievable, but it will come true with evolution of diamond or carbon chip.  Silicon.

Nano-Graphene Platelets James Robbins MEEN What are Nano-Graphene Platelets (NGP)? Similar to Carbon Nanotubes (CNT) Graphene is a single atom thick.

Graphene Semiconductors David Brown Student ECE Department University of Utah October 29, 2009.

Carbon. Allotropes Carbon can bond with itself in at least three different ways giving us 4 different materials –Diamond –Graphite –Buckyballs and nanotubes.

NANO RAM. NANO RAM CONTENTS INTRODUCTION HISTORY CARBON NANOTUBE STORAGE IN NRAM ADVANTAGES LIMITATIONS USES OF NRAM CONCLUSION REFERENCES.

EE 4611 INTRODUCTION, 13 January 2016 Semiconductor Industry Milestones Very pure silicon and germanium were manufactured PN junction diodes.

CLAYTRONICS CONTENTS 1. Abstract 2. Introduction. 3. Research terms considered in claytronics 4. Scientists views on claytronics.

Carbon Nanotubes.

Graphene and how it will be applied to Supercapacitors.

I. Introduction  Carbon nanotubes (CNTs), composed of carbon and graphite sheets, are tubular shaped with the appearance of hexagonal mesh with carbon.

Carbon allotropes. The physical properties depend on the chemical bonding.

ABSTRACT  Nanotechnology, the short gun marriage of chemistry and engineering in molecular manufacturing or more simply, building things one atom or.

Graphene Abstract -Origin of graphene -Structure

Carbon Allotropes And Its Nanostructures

TRANSPARENT ELECTRONICS

EEE 2056 Physical Electronic Graphene and its application

GRAPHENE -Successor to silicon.  Silicon has provided the electronics industry a solid base of favorable properties capitalizing on which various advancements.

EMR 2 The Compton Effect. Review of Photoelectric Effect: Intensity Matters - the greater the intensity/brightness, the greater the photoelectric current.

Gold Nanorods- used in cancer detection Carbon Nanotubes- used in bullet proofing Graphene Devices- used for sensing Hazardous Substances.

Presented by:- Shikha Gupta (UE6558). NANOELECTRONICS Branch of Engineering which uses nanometer scale elements in design of integrated circuits such.

GRAPHENE Thashinavel A/l Suppiah ( ) Major: Electronics.

• Very pure silicon and germanium were manufactured

A Seminar presentation on

Funded by National Science Foundation

Graphene Based Transistors-Theory and Operation; Development State

ORGANIC LIGHT EMITTING DIODES

Materials Science at a Glance

GRAPHENe. Introduction  Graphene can be described as a one-atom thick layer of graphite.  It is the basic structural element of other allotropes, including.

DIAMOND CHIP PRESENTED BY : A.RAKESH KIRAN

Quantum Size Effects in Nanostructures

I I T M SEMICONDUCTOR Presentation On IITM, E C-2ND YEAR 0915EC081070

EE 4611 INTRODUCTION 21 January 2015 Semiconductor Industry Milestones

INTRO TO TDM AND BUM TDM – Top Down Manufacturing

NRAM: Carbon Nanotube Memory

Carbon Nanotube Diode Design

INTRO TO TDM AND BUM TDM – Top Down Manufacturing

NANO TECHNOLOGY COOLING

Zacharias G. Fthenakis, Zhen Zhu and David Tománek

• Very pure silicon and germanium were manufactured

Presentation transcript:

WELCOME

ELECTRONIC CIRCITS USING GRAPHENE

CONTENTS ABSTRACT INTRODUCTION TO GRAPHENE HISTORY OF GRAPHENE IN ELCTRONIC CIRCUITS FABRICATION OF GRAPHENE USING CARBON NANO TUBES FABRICATION OF GRAPHENE USING BORON NITRATE EXPERIMENTAL GRAPHS ADVANTAGES APPLICATIONS CONCLUSION REFERENCES

ABSTRACT ELECTRONICS IS “POWERFULL”. GRAPHENE USED IN MODERN TECHNOLOGY. FABRICATION METHODS OF GRAPHENE APPLIATIONS IN MODERN TECHNOLOGY.

INTRODUCTION TO GRAPHENE THIN,MONOLAYER OF GRAPHITE.. HONEY COMB LIKE STRUCTURE. GRAPHITE+ENE(SINGLE LAYER CARBON). Sp2 BONDING. WRAPED INTO 1D,2D,3D.

2-D GRAPHENE 3-D GRAPHENE

HISTORY OF GRAPHENE IN ELCTRONIC CIRCUITS GRAPHENE EXISTS SINCE X-RAY CRYSTALLOGRAPHY. THERMODYNAMICALLY UNSTABLE. LOW ENERGY STATES. ISOLATED USING ADHESIVE TAPES. WEAK VANDER WAALS FORCES.

ISOLATED GRAPHENE LAYER

FABRICATION OF GRAPHENE USING CARBON NANOTUBES NANO RIBBONS MADE OF GRAPHENE MEMORY CELL (MEMORY CHIP) SIZE IS LESS INCREASE CAPACITY OBEYS MOORES LAW SIZE LESS THAN 10nm

AT 10nm SCALE

FABRICATON PROCESS DEPOSITE V2O5 NANOFIBRE TOP OF NANO GRAPHENE. ITCHING WITH ARGON ION SMOOTH EDGES. V2O5 REMOVED. NANO RIBBONS PLACED ALONG THE SINGLE WALLED CARBON NANO TUBE (SWNT)

GRAPHENE NANORIBBONS ENCAPSULATED IN “SINGLE-WALLED CARBON NANOTUBES”

ADVANTAGES OF USING NANO RIBBONS PROPERTIES CHANGES BY VARYING WIDTH, ANGLE OF NANO RIBBONS. IT FLIPS BETWEEN BIT 1(ON) AND BIT 0(OFF) STATES HIGH FREQUENCY ROBUST AND VERSATILE STATIC AND DYNAMIC MEMORIES MANUFACTURED.

FABRICATION USING BORON NITRATE 2 LAYER GRAPHENE SANDWITCHED BETWEEN 2 BORON NITRATE LAYERS FORM 4 LAYERED STRUCTURE GRAPHENE AS INSULATOR

BN-GRAPHENE-BN TOPPED WITH OTHER GRAPHENE LAYER. GRAPHENE’S ELECTRON HOLE PUDDEL SCREENED WITH 2nd LAYER GRAPHENE.

ADVANTAGES OF USING BORON NITRATE BORON ATOMS SMALL IN SIZE, AND NITROGEN ATOMS LARGER IN SIZE THAN CARBON ATOMS. PROPER WIDEBAND GAPE INSULATOR RESISTENCEQUANTUM>(h/(e*e))

EXPERIMENTAL GRAPHS

GENERAL ADVANTAGES FLEXIBLE(THERMALLY UNSTABLE) HARD(200 TIMES STRONGER) HIGH CAPACITY (LARGE STORAGE) HIGH SPEED (LESS TRANSITION TIME) HIGH THERMAL RESISTANCE

APPLICATIONS ELCTRONIC MARKET( COMPUTERS, PHONES). OLED (ORGANIC LIGHT EMITTING DIODES). NIGHT VISION SYSTEM. CO-AXIAL CABLES. MEMORY DEVICES. ENERGY STORAGE BATTERIES.

CONCLUSION “ELCTRONICS” BECOMES POWERFULL IF GRAPHENE USED IN MODERN TECHNOLOGY FOR ELECTRONIC DEVICES.

REFERENCES “Nature Physics”, AndreGeim & Novoselov,2011. “Graphene spurs next generation chips”, Hindu Newspaper, October13,2011.

THANKING YOU

QUARIES?