Small Idea’s
Big Impact’s
Shrishaila CD(GPB) UASR
Shrishaila cd
Dept of Genetics and Plant B
DNA NANOTECHNOLOGY
SEMINAR 2
ON
Shrishaila CD(GPB) UASR
Introduction
History of Nanotechnology
Nano particles
Applications of Nanotechnology
DNA Nanotechnology
DNA Nano Structures
Case Studies
Applications of DNA Nanotechnology
Conclusions
Shrishaila CD(GPB) UASR
Nanotechnology
“Nanotechnology is the art and science of manipulating matter at
nanoscale”
‘Nano’ is a Greek word, means Dwarf
1 nm = 10ˉ⁹ m i.e. one billionth of a meter
Shrishaila CD(GPB) UASR
Nano scale
Shrishaila CD(GPB) UASR
Richard Feynman,
Father of nanotechnology
Nobel Laureate(Physics)1965
Norio Taniguchi
coined the term “Nanotechnology” (1974)
Michael Faraday
1831
Shrishaila CD(GPB) UASR
Shrishaila CD(GPB) UASR
(Royal Society and Royal Academy of Engineering, 2004)
TOP DOWN APPROACH
METHODS OF NANOPARTICLE PRODUCTION
Shrishaila CD(GPB) UASR
(Royal Society and Royal Academy of Engineering, 2004)
BOTTOM UPAPPROACH
Shrishaila CD(GPB) UASR
Properties of Nano particles
• Every substance regardless of composition exhibits new properties
when the size is reduced to nano scale
• Properties of material is changed due to quantum effect
Shrishaila CD(GPB) UASR
Things behave differently in nano-world
 Carbon in the form of Graphite (i.e. pencil lead) is
soft, at the nano-scale, can be stronger than steel and
is six times lighter
 Nano-scale copper is a highly elastic metal at room
temperature, stretching to 50 times its original length
without breaking
 Shiny orange yellow Gold changes its colour to
brownish black on reducing the size
 Absorption of solar radiation in photovoltaic cells is
much higher in nanoparticles than it is in thin films
of continuous sheets of bulk material
Shrishaila CD(GPB) UASR
Tools of Nanotechnology
Dendrimers
Quantumdots
Nanosensors
FullerenesCarbon Nanotubes
Nano Chips
C60
Dendrimers
Shrishaila CD(GPB) UASR
Applications
Of
Nanotechnology
Shrishaila CD(GPB) UASR
In Agriculture and Allied Sciences
Food science and technology
Smart packaging with Nano silicon embedded durethan polymer to enhance
the shelf life of the food materials
Seed technology
Use of carbon Nanotubes increases the germination through better penetration
of the moisture
Soil remediation
Nanotech-based soil binder called SoilSet employed to avoid soil erosion
Water treatments
magnetite (iron oxide) nanocrystals to capture and remove arsenic from
contaminated water
Agricultural Engineering Issues
Nano coating of agricultural tools to increase their resistance against wear
and corrosion Shrishaila CD(GPB) UASR
Operates like human nose &Identify different
types of odours and their concentrations
e-Nose
Medicine Cancer treatment ,Bone treatment, Drug delivery
Smaller, faster, more energy efficient and
powerful computing and other IT-based systems
Information
Technology
Advanced packaging materials, sensors
and lab-on-chips for food quality testing
Foods and
beverages
Shrishaila CD(GPB) UASR
Shrishaila CD(GPB) UASR
 It is the design and manufacture of artificial nucleic acid structures
for technological uses
 Also known as Nucleic Acid Nanotechnology
 DNA is the carrier of Genetic information but here used as a
structural component
Shrishaila CD(GPB) UASR
History of DNA Nanotechnology
• 1964-Holliday Junction
• 1970-Sticky Ends
• 1980-DNA Nanotechnology
• 1991-first synthetic 3D DNA Nanostructure developed
• 1998-2D DNA Lattice
• 2006-2D DNA Origami developed
• 2009-3D DNA Origami developed
Shrishaila CD(GPB) UASR
DNA nanotechnology was first laid out by Nadrian C Seeman in
the early 1980s
In 1991, Seeman's laboratory published a report on the first synthetic
cube made up of DNA
Shrishaila CD(GPB) UASR
DNA Nanostructures
Shrishaila CD(GPB) UASR
Why DNA IN NANO WORLD
• Basic Geometric and Thermodynamic properties of DNA are well known
and predictable by available software's like TILE SOFT, GenoCAD
• DNA’s Ladder like structure provides the key frame work to the
scientists
• Existence of commercially available modifying enzymes
• Persistent length of DNA is about 500Å
• Self assembly property of DNA makes easy to construct the variety of
structures in a predictable manner
• Shapes of DNA nanostructures can be controllable
• Synthesis of SsDNA is less expensive
• Assembled structures can be characterized by various techniques like
AFM,TEM,CryoEM
Shrishaila CD(GPB) UASR
Construction of DNA Nanostructures
Mainly by using the following motifs
• Stem loop(Hair pin) structure
• Sticky ends
• Holliday Junction
Shrishaila CD(GPB) UASR
Unpaired region occur in Ss DNA or RNA
The structure is also known as a hairpin or hairpin loop
Shrishaila CD(GPB) UASR
Sticky ends
• An overhang is a stretch of unpaired nucleotides in the end of a DNA
molecule
• These overhangs are in most cases Palindromic
• Sticky ends are often used to combine two DNA nanostructures
together via hybridization of their complementary SsDNA
Shrishaila CD(GPB) UASR
Holliday junction
• Robin Holliday proposed its existence in 1964
• Two parallel DNA helices form a junction with one strand of each
DNA helix crossing over to the other DNA helix
Shrishaila CD(GPB) UASR
Shrishaila CD(GPB) UASR
DNA Lattice
A DNA tile is a DNA nanostructure that has a number of
sticky ends on its sides, which are termed pads
A DNA lattice is a DNA nanostructure composed of a
group of DNA tiles that are assembled together via
hybridization of their pads
Winfree, Yang and Seeman (1996) developed a family
of DNA tiles known collectively as DX tiles
Shrishaila CD(GPB) UASR
DNA Cube
• It is the first 3D DNA Structure
• DNA Axes connected to form the cube
• Each edge of the cube has 2 molecules
of dsDNA which are connected to
each other
• It contains 6 different strands
Shrishaila CD(GPB) UASR
DNA Origami
• Rothemund used the 5
SsDNA of M13 Phage 2006
• In 2009 Anderson et al.
Extended to 3D Origami
• It is the nanoscale folding
of SsDNA to create non-
arbitrary two- and three-
dimensional shapes
• SARSE software is using for
developing the structure Shrishaila CD(GPB) UASR
• Double cross over arrays can be
folded to form the DNA Nanotubes
• Can be made in to rings and spirals
• Potential use in the fields of
Drug delivery
Gene therapy
Electronic circuits
Shrishaila CD(GPB) UASR
• By shih, Quispe & joyce 2004
• By folding the five 40bp synthetic Ss DNA using a wire frame
structures
Shrishaila CD(GPB) UASR
Case studies
Shrishaila CD(GPB) UASR
Fabrication of DNA nanotubes using origami-based
nanostructures with sticky ends
Mohammad Mousavi-Khattat ,Adele Rafati ,Pooria Gill
5th February 2015
Objective:- Fabrication of DNA nanotubes using a minimum numbers of
staple oligomers for DNA origami
Shrishaila CD(GPB) UASR
Materials and methods
M13mp18 phage genome caDNAno
S1 CCAACGTGCAGGTCATTCGTA
S2 CACTATTCCGGTTCATGGTCG
S3 TTCCAGTTCCCTTAAGCAGGC
S4 GAGATAGGGTTGACGCGCGGGGAGAGGCGGT
S5 ACGGCCAGTGCCTGTTTCCTG
S6 CATGCCTCAAAGGGGCGCTCA
S7 GAGGATCAAAGAACGTCGGGA
S8 GGCAAAATTGGAACGCTGCAT
S9 ATCATGGGCTCACAAATGAGTGAGCTAACTCAC
S10 GGTACCGACGAGCCAGTGTAA
S11 GAAAATCTTGCCCTCACCAGT
S12 AGCGGTCCACGCTGGTTGAGAGACGCCAGG
Shrishaila CD(GPB) UASR
S13 TGTGAAATTGTTATCCTCATAGCAAGCTTG
S14 ACAACATAGCTCGAGACTCTA
S15 CAGCTGACTGTTTGCGAAATC
S16 CTGGCCCTTGCCCCTAAATCAAAAGAATAGCCC
S17 AGCCTGGCTTTCCAGTGGACT
S18 GAGACGGCGTGCCAAAGAGTC
S19 GTGGTTTTCGGCCAAGTGTTG
S20 TTGCGTATTGGGGTTGCAGCA
S21 ATTAATTGCGTTCGAAAAACCGTCTATCACG
S22 CTGCCCGGGTGCCTATTCCAC
S23 AACCTGTGCCATAAGGAAGAA
S24 TAATGAATTCTTTTTCACCGC
Shrishaila CD(GPB) UASR
Shrishaila CD(GPB) UASR
Shrishaila CD(GPB) UASR
Results
TEM Image
Shrishaila CD(GPB) UASR
STM Image
Shrishaila CD(GPB) UASR
Self-assembled aptamer-tethered DNA nanotrains for
targeted transport of molecular drugs
in cancer theranostics
Guizhi Zhu, Jing Zheng, Erqun Song, Michael Donovan, Kejing Zhang,
Chen Liu, and Weihong Tana
May 14, 2013
Shrishaila CD(GPB) UASR
Materials and Methods
Preparation of sgc8–NTrs and Drug Loading into Nanotrains
M1:- 5’CGTCGTGCAGCAGCAGCAGCAGCAACGGCTTGCTGCTGCTGCTGCTGC3’
M2:-5’TGCTGCTGCTGCTGCTGCACGACGGCAGCAGCAGCAGCAGCAAGCCGT3’
Sgc8 :-5’ATCTAACTGCTGCGCCGCCGGGAAAATACTGTACGGTTAGA3’
Sgc8–trigger
5’TGCTGCTGCTGCTGCTGCACGACGTTTATCTAACTGCTGCGCCGCCGGG3’
5 NOD.Cg-Prkdc (scid) IL2 mice were
purchased from The Jackson Laboratory and
maintained under pathogen Free conditions
Shrishaila CD(GPB) UASR
Guizhi Zhu et al. PNAS 2013;110:7998-8003
Shrishaila CD(GPB) UASR
Guizhi Zhu et al. PNAS 2013;110:7998-8003Shrishaila CD(GPB) UASR
Guizhi Zhu et al. PNAS 2013;110:7998-8003
Shrishaila CD(GPB) UASR
Guizhi Zhu et al. PNAS 2013;110:7998-8003
Shrishaila CD(GPB) UASR
Guizhi Zhu et al. PNAS 2013;110:7998-8003
Shrishaila CD(GPB) UASR
Guizhi Zhu et al. PNAS 2013;110:7998-8003Shrishaila CD(GPB) UASR
Guizhi Zhu et al. PNAS 2013;110:7998-8003
Shrishaila CD(GPB) UASR
Shrishaila CD(GPB) UASR
ATOMCALLY MODIFIED ORGANISMS
In March 2004, ETC Group reported on a nanotech research initiative in
Thailand
That aims to atomically modify the characteristics of local rice varieties.
Researchers “drilled” a hole through the membrane of a rice cell in order
to insert a nitrogen atom that would stimulate the rearrangement of the
rice’s DNA.
Shrishaila CD(GPB) UASR
Researchers have been able
to alter the colour of a local
rice variety from purple to
green Named as BKOS6
Thai jasmine rice (Oryza sativa L.
cv.KDML 105) Rice embryos
bombarded with N++N2+ ions at
an energy level of 60 keV
and ion fluence of 2×1016
ions/cm2
Shrishaila CD(GPB) UASR
HAT-RAPD was applied for analysis of genomic variation in the mutant
out Of 10 primers,
two primers detected two additional DNA bands at 450 bp and 400 bp.
Indicates presence of amino acid sequence of flavanoids
Shrishaila CD(GPB) UASR
Applications of DNA Nanotechnology
Shrishaila CD(GPB) UASR
DNA is the best nano wire in existence
BCZ..
1. It can self assemble
2. It can self replicate
3. It can adopt various states and
conformations
Rapid Disease Detection using the DNA
Nanotubes
And Molecular treatment
Shrishaila CD(GPB) UASR
Wide range of uses ranging from
building blocks to robotics
DNA Robotics
Used in making much smaller microchips than
the current semiconductor fabrication
technology
DNA Nanochips
Shrishaila CD(GPB) UASR
DNA
Computers
DNA can be used to make
computers instead of
silicon.
• Maya-II is an example.
DNA Sensors
made to detect any metal
• Much faster than traditional test
for lead and mercury
Shrishaila CD(GPB) UASR
DNA
Walkers
DNA nanotechnology can be
used to create walking bipedal
nano robots
• The walkers move on a DNA
track
Protein structure determination
NANO Mosquitoes
Used in militaries
Shrishaila CD(GPB) UASR
NANO In INDIA
• The Department of Science and Technology has a plan called Nano
Mission. It promotes basic research, infrastructure development,
nano-applications and technology development, human resource
development, and international collaborations. And it is headed by
BHARATH RATNA Dr. C N R RAO
• The Department of Electronics and Information Technology
focuses on nano electronics and technology development and on
nanofabrication.
Shrishaila CD(GPB) UASR
Two centres in India focusing on development of nanotechnology were
established in
BENGALURU and MUMBAI
• India is among the top ten publishing countries in this area with rise in
9.1%in the past ten years
• In 2013 , 87 patents in nanotechnology were published by Indian assignees
Shrishaila CD(GPB) UASR
Shrishaila CD(GPB) UASR
Future work
Shrishaila CD(GPB) UASR
Conclusions
Inaugurating the Global Forum On Agricultural Research(GFAR)Triennial conference –New Delhi
2006 ,President Dr. A.P.J ABDUL KALAM Focussed on the Nanotechnology as
the new technology that must be applied in Agriculture and Food industry
Shrishaila CD(GPB) UASR
Nano
Shrishaila CD(GPB) UASR

Dna nanotechnology

  • 1.
  • 2.
    Shrishaila cd Dept ofGenetics and Plant B DNA NANOTECHNOLOGY SEMINAR 2 ON Shrishaila CD(GPB) UASR
  • 3.
    Introduction History of Nanotechnology Nanoparticles Applications of Nanotechnology DNA Nanotechnology DNA Nano Structures Case Studies Applications of DNA Nanotechnology Conclusions Shrishaila CD(GPB) UASR
  • 4.
    Nanotechnology “Nanotechnology is theart and science of manipulating matter at nanoscale” ‘Nano’ is a Greek word, means Dwarf 1 nm = 10ˉ⁹ m i.e. one billionth of a meter Shrishaila CD(GPB) UASR
  • 5.
  • 6.
    Richard Feynman, Father ofnanotechnology Nobel Laureate(Physics)1965 Norio Taniguchi coined the term “Nanotechnology” (1974) Michael Faraday 1831 Shrishaila CD(GPB) UASR
  • 7.
  • 8.
    (Royal Society andRoyal Academy of Engineering, 2004) TOP DOWN APPROACH METHODS OF NANOPARTICLE PRODUCTION Shrishaila CD(GPB) UASR
  • 9.
    (Royal Society andRoyal Academy of Engineering, 2004) BOTTOM UPAPPROACH Shrishaila CD(GPB) UASR
  • 10.
    Properties of Nanoparticles • Every substance regardless of composition exhibits new properties when the size is reduced to nano scale • Properties of material is changed due to quantum effect Shrishaila CD(GPB) UASR
  • 11.
    Things behave differentlyin nano-world  Carbon in the form of Graphite (i.e. pencil lead) is soft, at the nano-scale, can be stronger than steel and is six times lighter  Nano-scale copper is a highly elastic metal at room temperature, stretching to 50 times its original length without breaking  Shiny orange yellow Gold changes its colour to brownish black on reducing the size  Absorption of solar radiation in photovoltaic cells is much higher in nanoparticles than it is in thin films of continuous sheets of bulk material Shrishaila CD(GPB) UASR
  • 12.
    Tools of Nanotechnology Dendrimers Quantumdots Nanosensors FullerenesCarbonNanotubes Nano Chips C60 Dendrimers Shrishaila CD(GPB) UASR
  • 13.
  • 14.
    In Agriculture andAllied Sciences Food science and technology Smart packaging with Nano silicon embedded durethan polymer to enhance the shelf life of the food materials Seed technology Use of carbon Nanotubes increases the germination through better penetration of the moisture Soil remediation Nanotech-based soil binder called SoilSet employed to avoid soil erosion Water treatments magnetite (iron oxide) nanocrystals to capture and remove arsenic from contaminated water Agricultural Engineering Issues Nano coating of agricultural tools to increase their resistance against wear and corrosion Shrishaila CD(GPB) UASR
  • 15.
    Operates like humannose &Identify different types of odours and their concentrations e-Nose Medicine Cancer treatment ,Bone treatment, Drug delivery Smaller, faster, more energy efficient and powerful computing and other IT-based systems Information Technology Advanced packaging materials, sensors and lab-on-chips for food quality testing Foods and beverages Shrishaila CD(GPB) UASR
  • 16.
  • 17.
     It isthe design and manufacture of artificial nucleic acid structures for technological uses  Also known as Nucleic Acid Nanotechnology  DNA is the carrier of Genetic information but here used as a structural component Shrishaila CD(GPB) UASR
  • 18.
    History of DNANanotechnology • 1964-Holliday Junction • 1970-Sticky Ends • 1980-DNA Nanotechnology • 1991-first synthetic 3D DNA Nanostructure developed • 1998-2D DNA Lattice • 2006-2D DNA Origami developed • 2009-3D DNA Origami developed Shrishaila CD(GPB) UASR
  • 19.
    DNA nanotechnology wasfirst laid out by Nadrian C Seeman in the early 1980s In 1991, Seeman's laboratory published a report on the first synthetic cube made up of DNA Shrishaila CD(GPB) UASR
  • 20.
  • 21.
    Why DNA INNANO WORLD • Basic Geometric and Thermodynamic properties of DNA are well known and predictable by available software's like TILE SOFT, GenoCAD • DNA’s Ladder like structure provides the key frame work to the scientists • Existence of commercially available modifying enzymes • Persistent length of DNA is about 500Å • Self assembly property of DNA makes easy to construct the variety of structures in a predictable manner • Shapes of DNA nanostructures can be controllable • Synthesis of SsDNA is less expensive • Assembled structures can be characterized by various techniques like AFM,TEM,CryoEM Shrishaila CD(GPB) UASR
  • 22.
    Construction of DNANanostructures Mainly by using the following motifs • Stem loop(Hair pin) structure • Sticky ends • Holliday Junction Shrishaila CD(GPB) UASR
  • 23.
    Unpaired region occurin Ss DNA or RNA The structure is also known as a hairpin or hairpin loop Shrishaila CD(GPB) UASR
  • 24.
    Sticky ends • Anoverhang is a stretch of unpaired nucleotides in the end of a DNA molecule • These overhangs are in most cases Palindromic • Sticky ends are often used to combine two DNA nanostructures together via hybridization of their complementary SsDNA Shrishaila CD(GPB) UASR
  • 25.
    Holliday junction • RobinHolliday proposed its existence in 1964 • Two parallel DNA helices form a junction with one strand of each DNA helix crossing over to the other DNA helix Shrishaila CD(GPB) UASR
  • 26.
  • 27.
    DNA Lattice A DNAtile is a DNA nanostructure that has a number of sticky ends on its sides, which are termed pads A DNA lattice is a DNA nanostructure composed of a group of DNA tiles that are assembled together via hybridization of their pads Winfree, Yang and Seeman (1996) developed a family of DNA tiles known collectively as DX tiles Shrishaila CD(GPB) UASR
  • 28.
    DNA Cube • Itis the first 3D DNA Structure • DNA Axes connected to form the cube • Each edge of the cube has 2 molecules of dsDNA which are connected to each other • It contains 6 different strands Shrishaila CD(GPB) UASR
  • 29.
    DNA Origami • Rothemundused the 5 SsDNA of M13 Phage 2006 • In 2009 Anderson et al. Extended to 3D Origami • It is the nanoscale folding of SsDNA to create non- arbitrary two- and three- dimensional shapes • SARSE software is using for developing the structure Shrishaila CD(GPB) UASR
  • 30.
    • Double crossover arrays can be folded to form the DNA Nanotubes • Can be made in to rings and spirals • Potential use in the fields of Drug delivery Gene therapy Electronic circuits Shrishaila CD(GPB) UASR
  • 31.
    • By shih,Quispe & joyce 2004 • By folding the five 40bp synthetic Ss DNA using a wire frame structures Shrishaila CD(GPB) UASR
  • 32.
  • 33.
    Fabrication of DNAnanotubes using origami-based nanostructures with sticky ends Mohammad Mousavi-Khattat ,Adele Rafati ,Pooria Gill 5th February 2015 Objective:- Fabrication of DNA nanotubes using a minimum numbers of staple oligomers for DNA origami Shrishaila CD(GPB) UASR
  • 34.
    Materials and methods M13mp18phage genome caDNAno S1 CCAACGTGCAGGTCATTCGTA S2 CACTATTCCGGTTCATGGTCG S3 TTCCAGTTCCCTTAAGCAGGC S4 GAGATAGGGTTGACGCGCGGGGAGAGGCGGT S5 ACGGCCAGTGCCTGTTTCCTG S6 CATGCCTCAAAGGGGCGCTCA S7 GAGGATCAAAGAACGTCGGGA S8 GGCAAAATTGGAACGCTGCAT S9 ATCATGGGCTCACAAATGAGTGAGCTAACTCAC S10 GGTACCGACGAGCCAGTGTAA S11 GAAAATCTTGCCCTCACCAGT S12 AGCGGTCCACGCTGGTTGAGAGACGCCAGG Shrishaila CD(GPB) UASR
  • 35.
    S13 TGTGAAATTGTTATCCTCATAGCAAGCTTG S14 ACAACATAGCTCGAGACTCTA S15CAGCTGACTGTTTGCGAAATC S16 CTGGCCCTTGCCCCTAAATCAAAAGAATAGCCC S17 AGCCTGGCTTTCCAGTGGACT S18 GAGACGGCGTGCCAAAGAGTC S19 GTGGTTTTCGGCCAAGTGTTG S20 TTGCGTATTGGGGTTGCAGCA S21 ATTAATTGCGTTCGAAAAACCGTCTATCACG S22 CTGCCCGGGTGCCTATTCCAC S23 AACCTGTGCCATAAGGAAGAA S24 TAATGAATTCTTTTTCACCGC Shrishaila CD(GPB) UASR
  • 36.
  • 37.
  • 38.
  • 39.
  • 40.
    Self-assembled aptamer-tethered DNAnanotrains for targeted transport of molecular drugs in cancer theranostics Guizhi Zhu, Jing Zheng, Erqun Song, Michael Donovan, Kejing Zhang, Chen Liu, and Weihong Tana May 14, 2013 Shrishaila CD(GPB) UASR
  • 41.
    Materials and Methods Preparationof sgc8–NTrs and Drug Loading into Nanotrains M1:- 5’CGTCGTGCAGCAGCAGCAGCAGCAACGGCTTGCTGCTGCTGCTGCTGC3’ M2:-5’TGCTGCTGCTGCTGCTGCACGACGGCAGCAGCAGCAGCAGCAAGCCGT3’ Sgc8 :-5’ATCTAACTGCTGCGCCGCCGGGAAAATACTGTACGGTTAGA3’ Sgc8–trigger 5’TGCTGCTGCTGCTGCTGCACGACGTTTATCTAACTGCTGCGCCGCCGGG3’ 5 NOD.Cg-Prkdc (scid) IL2 mice were purchased from The Jackson Laboratory and maintained under pathogen Free conditions Shrishaila CD(GPB) UASR
  • 42.
    Guizhi Zhu etal. PNAS 2013;110:7998-8003 Shrishaila CD(GPB) UASR
  • 43.
    Guizhi Zhu etal. PNAS 2013;110:7998-8003Shrishaila CD(GPB) UASR
  • 44.
    Guizhi Zhu etal. PNAS 2013;110:7998-8003 Shrishaila CD(GPB) UASR
  • 45.
    Guizhi Zhu etal. PNAS 2013;110:7998-8003 Shrishaila CD(GPB) UASR
  • 46.
    Guizhi Zhu etal. PNAS 2013;110:7998-8003 Shrishaila CD(GPB) UASR
  • 47.
    Guizhi Zhu etal. PNAS 2013;110:7998-8003Shrishaila CD(GPB) UASR
  • 48.
    Guizhi Zhu etal. PNAS 2013;110:7998-8003 Shrishaila CD(GPB) UASR
  • 49.
  • 50.
    ATOMCALLY MODIFIED ORGANISMS InMarch 2004, ETC Group reported on a nanotech research initiative in Thailand That aims to atomically modify the characteristics of local rice varieties. Researchers “drilled” a hole through the membrane of a rice cell in order to insert a nitrogen atom that would stimulate the rearrangement of the rice’s DNA. Shrishaila CD(GPB) UASR
  • 51.
    Researchers have beenable to alter the colour of a local rice variety from purple to green Named as BKOS6 Thai jasmine rice (Oryza sativa L. cv.KDML 105) Rice embryos bombarded with N++N2+ ions at an energy level of 60 keV and ion fluence of 2×1016 ions/cm2 Shrishaila CD(GPB) UASR
  • 52.
    HAT-RAPD was appliedfor analysis of genomic variation in the mutant out Of 10 primers, two primers detected two additional DNA bands at 450 bp and 400 bp. Indicates presence of amino acid sequence of flavanoids Shrishaila CD(GPB) UASR
  • 53.
    Applications of DNANanotechnology Shrishaila CD(GPB) UASR
  • 54.
    DNA is thebest nano wire in existence BCZ.. 1. It can self assemble 2. It can self replicate 3. It can adopt various states and conformations Rapid Disease Detection using the DNA Nanotubes And Molecular treatment Shrishaila CD(GPB) UASR
  • 55.
    Wide range ofuses ranging from building blocks to robotics DNA Robotics Used in making much smaller microchips than the current semiconductor fabrication technology DNA Nanochips Shrishaila CD(GPB) UASR
  • 56.
    DNA Computers DNA can beused to make computers instead of silicon. • Maya-II is an example. DNA Sensors made to detect any metal • Much faster than traditional test for lead and mercury Shrishaila CD(GPB) UASR
  • 57.
    DNA Walkers DNA nanotechnology canbe used to create walking bipedal nano robots • The walkers move on a DNA track Protein structure determination NANO Mosquitoes Used in militaries Shrishaila CD(GPB) UASR
  • 58.
    NANO In INDIA •The Department of Science and Technology has a plan called Nano Mission. It promotes basic research, infrastructure development, nano-applications and technology development, human resource development, and international collaborations. And it is headed by BHARATH RATNA Dr. C N R RAO • The Department of Electronics and Information Technology focuses on nano electronics and technology development and on nanofabrication. Shrishaila CD(GPB) UASR
  • 59.
    Two centres inIndia focusing on development of nanotechnology were established in BENGALURU and MUMBAI • India is among the top ten publishing countries in this area with rise in 9.1%in the past ten years • In 2013 , 87 patents in nanotechnology were published by Indian assignees Shrishaila CD(GPB) UASR
  • 60.
  • 61.
  • 62.
    Conclusions Inaugurating the GlobalForum On Agricultural Research(GFAR)Triennial conference –New Delhi 2006 ,President Dr. A.P.J ABDUL KALAM Focussed on the Nanotechnology as the new technology that must be applied in Agriculture and Food industry Shrishaila CD(GPB) UASR
  • 63.