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International Conference on Graphene, Carbon Nanotubes, and Nanostructures, will be organized around the theme “Launching Carbon into the World of Nanotechnology”

Carbon Congress 2018 is comprised of keynote and speakers sessions on latest cutting edge research designed to offer comprehensive global discussions that address current issues in Carbon Congress 2018

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Chemical functionalization of graphene enables the material to be processed by solvent assisted techniques, such as layer by layer assembly, spin coating and filtration. Hexagonal boron nitride is electrical insulating, combined with graphene and other 2D materials to make heterostructure devices. The two dimensional graphene sheet structures for field emission of electrons due to the carrier mobility and electron mass. The filed emitter by using multi layered graphene nanostructure, the graphitic structure of pristine graphene and carbon nanotube is the driving force of their interaction .The combination of graphene with carbon nanotubes to produced hybrids increased electrical conductivity, mechanical properties and high surface area.

  • Track 1-1Graphene based products
  • Track 1-22D Materials heterostructures and superstructures
  • Track 1-3Functionalisation of graphene oxide through surface modification
  • Track 1-4Field emission from Graphene
  • Track 1-5Chemical functionalisation of Graphene
  • Track 1-6Functionalization of graphene by other carbon nanostructure

Synthesis of graphene refers to any process for fabricating graphene. Mechanical exfoliation is probably the technique to attain single and few layered graphene produces from natural graphite by repeated peeling/exfoliation. Chemical vapour deposition has techniques for making thin continuous films with thickness control in micro-electronics. Plasma enhanced chemical vapour deposition synthesizing large area graphene on copper foils using spin coated PMMA films. Graphene heterostructures are synthesized on cobalt substrates by using the molecular beam epitaxial growth.

  • Track 2-1Mechanical exfoliation
  • Track 2-2Chemical vapor deposition
  • Track 2-3Molecular Beam Epitaxial Growth
  • Track 2-4Electrochemical synthesis
  • Track 2-5Hydrothermal self-assembly
  • Track 2-6Plasma enchanced chemical
  • Track 2-7Graphene analogs

Graphene-enchaned lithium ion batteries could be used in higher energy usage applications now in smartphones, laptops and tablet PCs. Graphene has a great potential to use for low cost, flexible and highly efficient photovolatics devices due to its excellent electron-transport properties and carrier mobility. Single or few layered graphene with less agglomeration, exhibit a higher effective surface area and better supercapictor. In hydrogen storage, hydrogen plays an important role in energy carriers. As a fuel of choice it is light weight, contains high energy density and emits no-harmful chemical by-products, hydrogen considered as a green energy.

  • Track 3-1Solarcells
  • Track 3-2Supercapictor energy storage
  • Track 3-3Lithium-ion batteries
  • Track 3-4Photovoltaics
  • Track 3-5Hydrogen storage
  • Track 3-6Fuel cells

Graphene-based composites are at present the main use of graphene effectively popularized on a vast scale. The quantity of items containing these composites is expanding constantly, from tennis rackets, to bikes, to skis. In any case, the execution of such items is not practically identical to that of immaculate graphene sheets, measured at the nanoscale, which effectively outflank settled materials, for example, steel, silicon, or copper. A key explanation behind this distinction in properties is that it is not yet completely seen how two-dimensional (2D) - based composites work at the nanoscale level and, all the more critically, what is a definitive execution (mechanical, electrical, and so on.) that can be accomplished when they are incorporated into a mass material.

  • Track 4-1Graphene Composites
  • Track 4-2Characterisation and modelling of Graphene materials in Composites
  • Track 4-3Fundamental Science of Graphene and 2D Materials beyond graphene
  • Track 4-4Chemisry of 2-D Materials
  • Track 4-5Science and applications of graphene and new 2D materials
  • Track 4-6Correlation Effects in Graphene and 2D Materials

Graphene has been widely utilized as a part of various diverse applications amid the most recent decade because of its exceptional properties, which incorporate expansive surface-to-volume proportion, interesting optical properties, superb electrical conductivity, high bearer portability, high transporter thickness, high warm conductivity, room temperature Hall impact, ambipolar field-impact attributes, high flag to-clamor proportion, and greatly high mechanical quality. It is a two-dimensional planar sheet of sp2-fortified carbon molecules stuffed thickly in a honeycomb precious stone cross section. The large scale manufacturing of graphene is finished by concoction vapor affidavit (CVD) and compound or warm diminishment of graphene oxide. A few substance alteration, biomolecular immobilization and nano composite arrangement techniques for graphene have likewise been created.

  • Track 5-1Latest developments in graphene production methods towards wide scale commercialization
  • Track 5-2A Nanowrench in the works
  • Track 5-3Nanopores could take the salt out of seawater
  • Track 5-4A molecular light-driven nanosubmarine
  • Track 5-5Bubble pen to write with nano particles
  • Track 5-6Nanosensors to replace RFID chips on consumer Products
  • Track 5-7Nano Produces Self-replicating microscopic robots
  • Track 5-8Development of intelligent wearable systems using nano technology
  • Track 5-9Remote sensing through nano Unmanned Aerial Vehicles and satellites
  • Track 5-10Nano Fibre Compared With Human Hair
  • Track 5-11Nanowires as Hair spray
  • Track 5-12Emerging opportunities for graphene-based materials
  • Track 5-13Nanotechnology changes behaviour of Materials used in solar -cells

Graphenated CarbonNanotubes are new hybrid that combines graphitic foliates grown with sidewalls of bamboo style CNTs. It has high surface are with 3D framework of CNTs coupled with high edge density of graphene. Chemical modification of carbon nanotubes are covalent and non-covalent modifications due to their hydrophobic nature and improve adhesion to a bulk polymer through chemical attachment. Applications of the carbon nanotubes are composite fibre, cranks, baseball bats, Microscope probes, tissue engineering, energy storage, super capacitor etc. Nanotubes are categorized as single-walled and multi-walled nanotubes with related structures.

  • Track 6-1Types of carbon nanotubes and related structures
  • Track 6-2Graphenated carbon nanotubes (g-CNTs)
  • Track 6-3Properties of Carbon Nanotubes
  • Track 6-4Safety and health
  • Track 6-5Chemical modification
  • Track 6-6Applications

By alloying multiple compounds, some semiconductor materials are tunable that results in ternary, quaternary compositions. Applications of semiconductors materials are optoelectronic, solar cells, Nano photonics, and quantum optics. Fabrication of cellulose Nano-structures via Nano Synthesis is a direct conversion of TMSC layers into cellulose via a Nano-sized focused electron beam as used in scanning electron microscopes.

  • Track 7-1Types of semiconductor materials
  • Track 7-2Fabrication
  • Track 7-3Semiconductor alloy system
  • Track 7-4Applications of Semiconductor materials
  • Track 7-5Fabrication of Cellulose Nano-Structures via Nanosynthesis

The first 2D material which was discovered is graphene, in the year 2004.2D Materials referred to as single layer materials, are crystalline materials consisting of a single layer of atoms. Since the isolation of graphene, a large amount of research has been directed at isolating other 2D materials due to their unusual characteristics and for use in applications such as photovoltaic, semiconductors, electrodes and water purification. Research on these other materials has grown more rapidly than that on graphene since 2010.The global market for 2D materials is expected to reach US$390 million within a decade, mostly for graphene in the semiconductor, electronics, battery energy and composites markets. 


  • Track 8-1Integration of Graphene with other 2D materials
  • Track 8-2Growth, synthesis techniques and integration methods
  • Track 8-3Chemistry and modification of 2DMaterials
  • Track 8-4Electronic, optoelectronic properties and potential applications
  • Track 8-5Structural, electronic, optical and magnetic properties of 2DMaterials and devices
  • Track 8-6Applications of 2DMaterials in electronics, photonics, energy and biomedicine

Graphene-based nano materials have numerous promising applications in vitality related zones. Simply some late illustrations: Graphene enhances both vitality limit and charge rate in rechargeable batteries; enacted graphene makes prevalent super capacitors for vitality stockpiling; graphene terminals may prompt to a promising methodology for making sunlight based cells that are cheap, lightweight and adaptable; and multifunctional graphene mats are promising substrates for synergist frameworks. The four noteworthy vitality related zones where graphene will have an effect: sun powered cells, super capacitors, lithium-particle batteries, and catalysis for energy units.

  • Track 9-1Revolutionary graphene polymer batteries for electric cars
  • Track 9-2Graphene features as a transparent electrode
  • Track 9-3Electrical energy storage
  • Track 9-4Sustainable Technologies
  • Track 9-5Hydrogen Technologies
  • Track 9-6Nuclear Acident Cleanup and Waste Storage
  • Track 9-7Increasing the efficiency of energy production
  • Track 9-8Solarthermal Energy
  • Track 9-9Graphene enables long lasting lithium-air batteries
  • Track 9-10Graphenano announces the launch of a manufacturing plant for graphene-based batteries
  • Track 9-11Generation of chemical energy resources

One of a kind among the components, carbon can cling to itself to shape to a great degree solid two-dimensional sheets. Since we live in a three-dimensional world, these sheets can be rolled and collapsed into a various scope of three-dimensional structures, of which the most well  known are the ball-formed fullerenes and the tube shaped nanotubes. Different shapes are additionally conceivable, for example, carbon nanocones and Swiss cheddar like nanoporous carbon. A prologue to the geometry and energetics of carbon nanostructures is likewise accessible.