KEMBAR78
Ppt of nanocomputing | PPTX
Submitted To :       Submitted By:
Dr. Sanjay Bhargav   Shweta Rathi
                     Roll No. 35
 What is nanocomputing
 Architectures
 Moore’s law
 How nanocomputer works
 Application of nanocomputing
 Quantum Mechanics
 Quantum vs Classical Computing
 Prospects Of quantum computing
 Risks in nanocomputing
 Conclusion
Nanocomputing
describes those
componants that uses
extremely small or
nanoscale devices.
 Two forces driving the need for new
circuits design and architectures.
   Invention of devices and technologies
    that have completly different physical
    principles from FET.
   New processing technologies combining
    CMOS functions with other functions.
 3D Integration
Quantam Cell Automata
Quantum Computing
 Array of quantum dots.
 An extension of the CNN concept is that of
quantum-dot cellular automata (QCA). This
architecture uses arrangements of single
electrons that communicate with each other by
Coulomb repulsion over large arrays.
 The arrangement of electrons at the edges
provides the computational output. The electron
arrangements of QCA are controlled by an
external clock and operate according to the rules
of Boolean logic.
Another potential architecture is that of
"crossbar switching" in which molecules
are placed at the intersections of
nanometer-scale wires. These molecules
provide coupling between the wires and
provide computing functionality.
 Physical integrate    emerging devices that have
different technology.

     Microprocessors with ASCIs etc.
     Molecular with plastic,or quantam conductors .
    CMOS with dissimilar material systems

Reduce global inteconnect
    Enables mixed technology solution..


 It is associated with the need to integrate
dissimilar technologies on a common platform to
deliver an optimum info processing solution.
   According to moore’s law,the no of
    transistors that will fit on a silicon chip
    doubles every 18 months.
     Presently microprocessors have more than
      40 million transistors; by 2012 they could
      have up to 5 billions.
     By the year 2020 the trend line of moore’s
      law states that there should be a 1
      nanometer feature size…..
 Nanocomputer     would work by storing data in
  the form of atomic quantum states or
  spin..(SEM and quantum dots)
 There are several methods of nanoelectronic
  data storage currently being
  researched.Among the most promising are
  set electron transistors and quantum dots.
 All of these devices function based upon the
  principles of quantum mechanics…
 Quantum devices store info. By using the
  phase of a quantum wave function c/d a
  qubit.
 Qubit are sensitive to external environment
  Qubits are very small properties being made of
   atoms,ions,photons or electrons.
  Can control this entanglement using physical
   gates.
  To perform a useful function,we can manipulate
   wave functions and then read the result.
 In general quantum 2 state system ,c/d a
 quantum bit or qubit.
 Quantum computer
 Displays
   Quantum computer would be exponentialy
    faster than modern computer.
     (e.g. A supercomputer trying to find one
    phone number in a database of all the world's
    phone books would take a month, Chuang
    says. A quantum computer could do it in 27
    minutes.)
   It would break the most sophisticated code.
   Its fast enough to do computer simulations
    for nuclear explosions.
Quantum computers might prove especially
    useful in the following applications :
   Breaking ciphers
   Statistical analysis
   Factoring large numbers
   Solving problems in theoretical physics
   Solving optimization problems in many
    variables.
   It requires that the state of qubits be
    mainted for a long time for a computation to
    complete.
   Only few problems have been exhibited for
    which quntum mechanics offers an
    advantage.
 Electrons scientists need to develop new
  circuits to cope with nano circuits working
  with carbon nanotubes.
 The transistors will be 100 times smaller
  than the thickness of human hair.
 The ultracapacitors produces high heat till
  today there is no remedy given to cool it.
Nanobased quantum computers would
revolutionize computing and increse their
computing power tremendously.
          It covers the underlying physics
,reliability and nanoscale quantum,optical
and molecular computing.
   http://www.mitre.org/tech/nanotech/ourwor
    k/nano_papers.html#nanoelectronics
   http://www.nanocare-ag.com/produkte
   http://www.nanotechproject.org/inventories/
    consumer/browse/products/canola_active_oil
   http://nanocomputer.flyingelectron.com
   http://forum.s1mp3.org/viewforum.php
   http://www.nanonewsnet.com
   http://en.wikipedia.org/wiki/Nanocomputer

Ppt of nanocomputing

  • 1.
    Submitted To : Submitted By: Dr. Sanjay Bhargav Shweta Rathi Roll No. 35
  • 2.
     What isnanocomputing  Architectures  Moore’s law  How nanocomputer works  Application of nanocomputing  Quantum Mechanics  Quantum vs Classical Computing  Prospects Of quantum computing  Risks in nanocomputing  Conclusion
  • 3.
    Nanocomputing describes those componants thatuses extremely small or nanoscale devices.
  • 4.
     Two forcesdriving the need for new circuits design and architectures.  Invention of devices and technologies that have completly different physical principles from FET.  New processing technologies combining CMOS functions with other functions.  3D Integration Quantam Cell Automata Quantum Computing
  • 5.
     Array ofquantum dots.  An extension of the CNN concept is that of quantum-dot cellular automata (QCA). This architecture uses arrangements of single electrons that communicate with each other by Coulomb repulsion over large arrays.  The arrangement of electrons at the edges provides the computational output. The electron arrangements of QCA are controlled by an external clock and operate according to the rules of Boolean logic.
  • 6.
    Another potential architectureis that of "crossbar switching" in which molecules are placed at the intersections of nanometer-scale wires. These molecules provide coupling between the wires and provide computing functionality.
  • 7.
     Physical integrate emerging devices that have different technology.  Microprocessors with ASCIs etc.  Molecular with plastic,or quantam conductors . CMOS with dissimilar material systems Reduce global inteconnect Enables mixed technology solution..  It is associated with the need to integrate dissimilar technologies on a common platform to deliver an optimum info processing solution.
  • 8.
    According to moore’s law,the no of transistors that will fit on a silicon chip doubles every 18 months.  Presently microprocessors have more than 40 million transistors; by 2012 they could have up to 5 billions.  By the year 2020 the trend line of moore’s law states that there should be a 1 nanometer feature size…..
  • 10.
     Nanocomputer would work by storing data in the form of atomic quantum states or spin..(SEM and quantum dots)  There are several methods of nanoelectronic data storage currently being researched.Among the most promising are set electron transistors and quantum dots.  All of these devices function based upon the principles of quantum mechanics…
  • 11.
     Quantum devicesstore info. By using the phase of a quantum wave function c/d a qubit.  Qubit are sensitive to external environment  Qubits are very small properties being made of atoms,ions,photons or electrons.  Can control this entanglement using physical gates.  To perform a useful function,we can manipulate wave functions and then read the result.  In general quantum 2 state system ,c/d a quantum bit or qubit.
  • 12.
  • 13.
    Quantum computer would be exponentialy faster than modern computer. (e.g. A supercomputer trying to find one phone number in a database of all the world's phone books would take a month, Chuang says. A quantum computer could do it in 27 minutes.)  It would break the most sophisticated code.  Its fast enough to do computer simulations for nuclear explosions.
  • 14.
    Quantum computers mightprove especially useful in the following applications :  Breaking ciphers  Statistical analysis  Factoring large numbers  Solving problems in theoretical physics  Solving optimization problems in many variables.
  • 15.
    It requires that the state of qubits be mainted for a long time for a computation to complete.  Only few problems have been exhibited for which quntum mechanics offers an advantage.
  • 16.
     Electrons scientistsneed to develop new circuits to cope with nano circuits working with carbon nanotubes.  The transistors will be 100 times smaller than the thickness of human hair.  The ultracapacitors produces high heat till today there is no remedy given to cool it.
  • 17.
    Nanobased quantum computerswould revolutionize computing and increse their computing power tremendously. It covers the underlying physics ,reliability and nanoscale quantum,optical and molecular computing.
  • 20.
    http://www.mitre.org/tech/nanotech/ourwor k/nano_papers.html#nanoelectronics  http://www.nanocare-ag.com/produkte  http://www.nanotechproject.org/inventories/ consumer/browse/products/canola_active_oil  http://nanocomputer.flyingelectron.com  http://forum.s1mp3.org/viewforum.php  http://www.nanonewsnet.com  http://en.wikipedia.org/wiki/Nanocomputer