BY
MANISH MUDALIAR-42
VEER MISRY-41
What is nanomaterial ????
A material having.
particles or constituents
of nanoscale dimensions
or one that is produced by
nanotechnology.
Nanomaterial Composition
• Comprised of many different elements such as
carbons and metals
• Combinations of elements can make up
nanomaterial grains such as titanium carbide
and zinc sulfide
• Allows construction of new materials such as
C60 (Bucky Balls or fullerenes) and nanotubes
LIST OF APPLICATIONS
• Next-Generation Computer Chips
• Phosphors for High-Definition TV
• Low-Cost Flat-Panel Displays
• Tougher and Harder Cutting Tools
• Elimination of Pollutants
• Longer-Lasting Medical Implants
• High-Sensitivity Sensors
• Since nanomaterials possess unique,
beneficial chemical, physical, and mechanical
properties, they can be used for a wide variety
of applications. These applications include,
but are not limited
Next-generation computer
chips
Ultra-high purity materials,
enhanced thermal conductivity
and longer lasting
nanocrystalline materials
Improved HDTV and LCD
monitors
Nanocrystalline selenide, zinc
sulfide, cadmium sulfide, and
lead telluride to replace current
phosphors
Cheaper and more durable.
Elimination of Pollutants
–Engineered to be chemically reactive to
carbon monoxide and nitrous oxide
–More efficient pollution controls and
cleanup
TOUGHER AND HARDER CUTTING
TOOLS
– Tungsten carbide, tantalum carbide, and titanium
carbide
– Much more wear-resistant and corrosion-resistant
than conventional materials
– Reduces time needed to manufacture parts,
cheaper manufacturing
LONG LASTING MEDICAL
IMPLANTS
• Higher quality medical implants
– Current micro-scale implants aren’t porous
enough for tissue to penetrate and adapt to
– Nano-scale materials not only enhance durability
and strength of implants but also allow tissue cells
to adapt more readily
CONCLUSION
• From the above examples, it is quite evident
that nanocrystalline materials, synthesised by
the sol-gel technique, can be used in a wide
variety of new, unique and existing
applications. It is also very evident that
nanomaterials outperform their conventional
counterparts because of their superior
chemical, physical, and mechanical properties
and of their exceptional formability.

nano materials

  • 1.
  • 2.
    What is nanomaterial???? A material having. particles or constituents of nanoscale dimensions or one that is produced by nanotechnology.
  • 3.
    Nanomaterial Composition • Comprisedof many different elements such as carbons and metals • Combinations of elements can make up nanomaterial grains such as titanium carbide and zinc sulfide • Allows construction of new materials such as C60 (Bucky Balls or fullerenes) and nanotubes
  • 4.
    LIST OF APPLICATIONS •Next-Generation Computer Chips • Phosphors for High-Definition TV • Low-Cost Flat-Panel Displays • Tougher and Harder Cutting Tools • Elimination of Pollutants • Longer-Lasting Medical Implants • High-Sensitivity Sensors
  • 5.
    • Since nanomaterialspossess unique, beneficial chemical, physical, and mechanical properties, they can be used for a wide variety of applications. These applications include, but are not limited
  • 6.
    Next-generation computer chips Ultra-high puritymaterials, enhanced thermal conductivity and longer lasting nanocrystalline materials Improved HDTV and LCD monitors Nanocrystalline selenide, zinc sulfide, cadmium sulfide, and lead telluride to replace current phosphors Cheaper and more durable.
  • 7.
    Elimination of Pollutants –Engineeredto be chemically reactive to carbon monoxide and nitrous oxide –More efficient pollution controls and cleanup
  • 8.
    TOUGHER AND HARDERCUTTING TOOLS – Tungsten carbide, tantalum carbide, and titanium carbide – Much more wear-resistant and corrosion-resistant than conventional materials – Reduces time needed to manufacture parts, cheaper manufacturing
  • 9.
    LONG LASTING MEDICAL IMPLANTS •Higher quality medical implants – Current micro-scale implants aren’t porous enough for tissue to penetrate and adapt to – Nano-scale materials not only enhance durability and strength of implants but also allow tissue cells to adapt more readily
  • 10.
    CONCLUSION • From theabove examples, it is quite evident that nanocrystalline materials, synthesised by the sol-gel technique, can be used in a wide variety of new, unique and existing applications. It is also very evident that nanomaterials outperform their conventional counterparts because of their superior chemical, physical, and mechanical properties and of their exceptional formability.