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The document discusses nanotechnology and its applications in electrical systems. It begins with an introduction to nanotechnology, defining it as engineering at the atomic scale between 1-100 nanometers. It then discusses how properties can differ at the nanoscale. Examples of applications in electrical systems given include using carbon nanotubes for their high conductivity and low resistivity in computer processing. Advantages include increasing memory density and display quality while reducing size, weight and power consumption, though development costs are high. The future scope may include flexible electronics, molecular devices and advances in wireless technologies through nanotechnology.
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APPLICATIONS OF NANOTECHNOLOGY IN ELECTRONICS.
Some concept about nanotechniology.,applications of nanotechnology in Electronics,and the future scope of nanotechnology.
Nanoelectronics
Nanotechnology involves manipulating materials at the atomic or molecular scale to create structures between 1 to 100 nanometers in size and endow them with new properties. It has applications in electronics, medicine, energy, and other fields. Some key points are that it allows integrating biology, chemistry and engineering to build devices with unprecedented properties. Challenges include developing new research tools and cleanroom infrastructure since nanoscale work requires precision. The future of nanotechnology may include flexible electronics, molecular devices, and applications like enhanced health monitoring and energy storage.
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Nanotechnology involves manipulating materials at the atomic or molecular scale to create structures between 1 to 100 nanometers in size and endow them with new properties. It has applications in electronics, medicine, energy, and other fields. Some key points are that it allows integrating biology, chemistry and engineering to build devices with unprecedented properties. Challenges include developing new research tools and cleanroom infrastructure since nanoscale work requires precision. The future of nanotechnology may include flexible electronics, molecular devices, and applications like enhanced medical diagnostics and treatment.
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Nanotechnology involves manipulating materials at the atomic or molecular scale to create structures between 1 to 100 nanometers in size and endow them with new properties. It has applications in electronics, medicine, energy, and other fields. Some key points are that it allows integrating biology, chemistry and engineering to build devices with unprecedented properties. Challenges include developing new research tools and cleanroom infrastructure since nanoscale work requires precision. The future of nanotechnology may include flexible electronics, molecular devices, and applications like enhanced health monitoring and energy storage.
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Shri_navale2911.pptx
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The Eigenfrequency Analysis of Mems Based Baw Resonator
As technology is growing very rapidly, Micro scale devices are playing a vital role in the electronic,
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designed in 2D using eigenfrequency by using Zinc oxide and Lead Zirconate Titanate (PZT-8) materials and
try to achieve a high quality ( Q) factor . The Q-factor is the most important characteristics of a resonator
because it describes the frequency selectivity of the device. The high Q-factor greatly helps to implement
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The document discusses the history and development of nanotechnology. It begins with key early milestones like Richard Feynman's 1959 talk envisioning atomic engineering and the 1981 invention of the scanning tunneling microscope. The 1985 discovery of buckyballs also represented an important early discovery. The document then discusses topics like integrated circuits, nanotechnology funding levels, applications of nanotechnology, and how properties change at the nanoscale.
Amity jaipur ppp fabrication and characterization of nanowire devices
Amity jaipur ppp fabrication and characterization of nanowire devicesEternal University Baru Sahib, HP, India
Fabrication Techniques and Characterization of Metal and semi-Conductor Nanowires is Presented in this Lecture delivered at AMITY University, Jaipur.Singularit University presentation Nanotechnology nextbigfuture.com
2010 Singularity university presentation: Latest Developments and Current Capabilities in Nanotechnology
from nextbigfuture.com
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This document discusses applications of nanotechnology including nanocells, carbon nanotubes, and molecular electronics. Nanocells are self-assembled networks of metallic particles that act as programmable switches. Carbon nanotubes are rolled sheets of carbon that can be semiconductors or metals and are strong candidates for nanowires. Potential applications highlighted include using carbon nanotubes for transistors, fuel cells, and simulation. Other applications discussed are nanobridge devices, nanoscale transistors, components for quantum computers, nanophotonic devices, and nanobiochips for drug discovery.
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This document discusses the design and simulation of a MEMS-based surface acoustic wave (SAW) gas sensor. SAW gas sensors use piezoelectric materials and operate by detecting changes in oscillation frequency when gas molecules are absorbed by a sensing film on the surface. The document describes modeling the sensor geometry and materials in COMSOL Multiphysics to simulate sensor performance. Simulations analyzed deformation and electrical potential at resonance and anti-resonance frequencies for different piezoelectric materials. Results showed lithium tantalate produced better responses than lithium niobate. SAW gas sensors are widely used to detect gases for applications like vehicle emissions monitoring.
Nanotechnology finalyear
The document is a technical seminar presentation on nanotechnology given by a student at Sapthagiri College of Engineering. It begins with an introduction defining nanotechnology as the control and manipulation of matter at the atomic or molecular scale between 1-100 nanometers. It then discusses the evolution of nanotechnology, some technical feasibility aspects like reduced cost and size, and the main approaches of top-down and bottom-up fabrication. Applications covered include electronics, computing, robotics, and medicine. Some merits like reduced heat and size and potential demertis involving nanoparticle health effects are also summarized. The conclusion discusses the wide role of nanotechnology across many fields and future applications involving electronic paper, morph concept phones, and nanoclothing
My encounter with nanotechnology
This Presentation is based on our Research work carried out in GNDU Amritsar and DAVIET, Jallandhar. We fabricated Ion track filters; nanowires and some Exotic Patterns for the first time in India using simple Techniques.
nanotechnology in electronics for engineers
This document discusses the use of nanotechnology in electronics and computing. It describes how nanotechnology allows for smaller transistors, memory, and circuitry, enabling faster computers that cost less. Specifically, it explains how nanoscale transistors are grown on silicon wafers instead of being assembled, allowing for far more transistors. Nanotechnology also allows for greater data storage density, with 1 terabyte of memory able to fit on the head of a pin. In displays, carbon nanotubes enable transparent, thin, and flexible conductive panels. Circuitry is examined using electron microscopes or atomic force microscopes due to the small scale. Overall, the document outlines how nanotechnology enables continued advancement in computing and electronics by allowing for smaller components.
Lf3420252035
International Journal of Engineering Research and Applications (IJERA) is an open access online peer reviewed international journal that publishes research and review articles in the fields of Computer Science, Neural Networks, Electrical Engineering, Software Engineering, Information Technology, Mechanical Engineering, Chemical Engineering, Plastic Engineering, Food Technology, Textile Engineering, Nano Technology & science, Power Electronics, Electronics & Communication Engineering, Computational mathematics, Image processing, Civil Engineering, Structural Engineering, Environmental Engineering, VLSI Testing & Low Power VLSI Design etc.
Industrial Nanotechnology
Nano electrical and electronic devices: advantages - Data storage
and memory - Micro and nanoelectromechanical systems - Lasers,
lighting and displays – Batteries - Fuel cells - Photovoltaic cells -
Electric double layer capacitors - Nanoparticle coatings for
electrical products
Moletronics
Molecular electronics utilizes single molecules or collections of molecules as electronic components. It offers the potential to continue shrinking circuits beyond the limits of silicon as dictated by Moore's law. Molecular electronics relies on organic polymers, polyphenylene chains, and carbon nanotubes as its molecular building blocks. These molecules can act as wires, transistors, diodes, and other circuit elements. Successful demonstrations include organic field-effect transistors and molecular memory chips. Molecular electronics promises greater miniaturization, lower power usage, and new applications like flexible electronics if the challenges of precise fabrication and experimental verification can be overcome.
Overview of carbon nanotubes cnts novelof applications as microelectronics op...
Overview of carbon nanotubes cnts novelof applications as microelectronics optical communications biological biomedicine and biosensing
Shri_navale2911.pptx
_*G℮ηíUѕ 𝖇ƴ 𝖇ír†н , モѵíl 𝖇ƴ 𝕮ho̶íc℮*_Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
_*G℮ηíUѕ 𝖇ƴ 𝖇ír†н , モѵíl 𝖇ƴ 𝕮ho̶íc℮*_Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
_*G℮ηíUѕ 𝖇ƴ 𝖇ír†н , モѵíl 𝖇ƴ 𝕮ho̶íc℮*_Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
_*G℮ηíUѕ 𝖇ƴ 𝖇ír†н , モѵíl 𝖇ƴ 𝕮ho̶íc℮*_Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
_*G℮ηíUѕ 𝖇ƴ 𝖇ír†н , モѵíl 𝖇ƴ 𝕮ho̶íc℮*_Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
_*G℮ηíUѕ 𝖇ƴ 𝖇ír†н , モѵíl 𝖇ƴ 𝕮ho̶íc℮*_Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
_*G℮ηíUѕ 𝖇ƴ 𝖇ír†н , モѵíl 𝖇ƴ 𝕮ho̶íc℮*_Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
_*G℮ηíUѕ 𝖇ƴ 𝖇ír†н , モѵíl 𝖇ƴ 𝕮ho̶íc℮*_Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
_*G℮ηíUѕ 𝖇ƴ 𝖇ír†н , モѵíl 𝖇ƴ 𝕮ho̶íc℮*_Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
Iƒ ƴ口ᴜʀ EGO ႽpモαƘ Ŵί†h м℮,†h℮η мƴ A††ί†υd℮ 尺モpℓi℮S †口 ƴ口ᴜ
_*G℮ηíUѕ 𝖇ƴ 𝖇ír†н ,
Carbon Nanotubes
This document discusses carbon nanotubes (CNTs), including their discovery, structure, properties, synthesis, applications, and future potential. Some key points:
- CNTs were discovered in 1991 and have a rolled-up graphene sheet structure that gives them unique mechanical and electrical properties.
- CNTs exhibit extraordinary strength and conductivity, with current-carrying capacity 1000 times higher than copper.
- Common synthesis methods are arc discharge, laser ablation, and chemical vapor deposition.
- Applications include energy storage, conductive composites, electronics, and more. Mass production is increasing and CNTs are already used in some products.
- CNTs show promise for applications across many industries
A010620104
This document analyzes the eigenfrequency of a MEMS-based bulk acoustic wave resonator designed using zinc oxide and lead zirconate titanate materials. It summarizes that a square plate thin film resonator was modeled and analyzed at different eigenfrequencies. The quality factor was highest at 1.385 GHz for zinc oxide, reaching 2487. For lead zirconate titanate, the quality factor was highest at 1.028 GHz at 1481.7. It concludes that zinc oxide is preferable for piezoelectric bulk acoustic wave resonators as it can generate a higher quality factor at higher frequencies suitable for intermediate and radio frequency filters.
The Eigenfrequency Analysis of Mems Based Baw Resonator
As technology is growing very rapidly, Micro scale devices are playing a vital role in the electronic,
mechanical and other application areas due to their integrability with CMOS IC technology, low power
consumption, low cost Fabrication and Large frequency-Quality factor product. As there is a much demand for
small and portable devices the applications of micro devices like MEMS based Bulk Acoustic Wave (BAW)
resonators are rapidly increasing. In this paper we will present the analysis of thin-film BAW resonator
designed in 2D using eigenfrequency by using Zinc oxide and Lead Zirconate Titanate (PZT-8) materials and
try to achieve a high quality ( Q) factor . The Q-factor is the most important characteristics of a resonator
because it describes the frequency selectivity of the device. The high Q-factor greatly helps to implement
extremely selective IF and RF filters with small percent bandwidth and low insertion loss
ETE444-lec1-nano-introduction.ppt
The document discusses the history and development of nanotechnology. It begins with key early milestones like Richard Feynman's 1959 talk envisioning atomic engineering and the 1981 invention of the scanning tunneling microscope. The 1985 discovery of buckyballs also represented an important early discovery. The document then discusses topics like integrated circuits, nanotechnology funding levels, applications of nanotechnology, and how properties change at the nanoscale.
Amity jaipur ppp fabrication and characterization of nanowire devices
Amity jaipur ppp fabrication and characterization of nanowire devicesEternal University Baru Sahib, HP, India
Fabrication Techniques and Characterization of Metal and semi-Conductor Nanowires is Presented in this Lecture delivered at AMITY University, Jaipur.Singularit University presentation Nanotechnology nextbigfuture.com
2010 Singularity university presentation: Latest Developments and Current Capabilities in Nanotechnology
from nextbigfuture.com
Nanogenerators
A nanogeneratoris a nanoscale device capable of generating electric current, or electromagnetic fields for the use in various fields. With these nanogenerators, the mechanical energy can be harnessed to recharge electronic gadgets. Zhong LinWang, professor in Georgia Institute of Technology invented this technology. The nanogenerator he made could produce 4W per cc of the nanowire. The working principle of nanogenerator is the PIEZOELECTRIC EFFECT; a phenomenon displayed by certain materials where mechanical stress is converted to electric current. This effect is closely related to a change of polarization density within the material’s volume. If the material is not short circuited, the applied stress induces a voltage across it.Thenanogenerator is made up of zinc oxide wires. These nanowires being piezoelectric, produces a small electrical pulse when subjected to mechanical stress like body movements or even light breeze.
REPLACING COPPER WITH NEW CARBON NANOMATERIALS IN ELECTRICAL MACHINE WINDING
Carbon nanotubes have properties that could make them suitable for replacing copper in electrical machine windings. CNTs have higher conductivity and current density than copper, lower resistivity, and are less prone to skin effect. A prototype CNT motor was created that had slightly higher efficiency than an equivalent copper motor, demonstrating the potential of CNTs. However, CNTs are still more expensive to produce than copper and further research is needed before widespread commercial use. The document discusses the properties of CNTs, compares them to copper, and outlines a prototype test of a CNT motor to evaluate its performance gains over conventional copper windings.
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Amity jaipur ppp fabrication and characterization of nanowire devices
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presentation.pdf
- 1. Department of Electrical Engineering National Institute of Technology Srinagar SEMINAR PRESENTATION TITLE: NANO TECHNOLOGY & ITS APPLICATIONS IN ELECTRICAL SYSTEM Course Name: Seminar (EES401) Submitted by: Anurag Jaiswal (2019BELE072) 4th Year B.Tech ELECTRICAL ENGINEERING (7th Semester)
- 2. CONTENTS Introduction What is “nanoscale”? Nanotechnology What makes the nano scale special ? Common applications of nanotechnology in electrical systems Advantages of nanotechnology Disadvantages of nanotechnology Future scope of nanotechnology
- 3. Introduction What is "Nano"? Nano in Greek means dwarf but in actual Nano is even smaller than dwarf i.e. atomic level of anything.
- 5. NANOTECHNOLOGY Nanotechnology is the study of manipulating matter on an atomic scale. Nanotechnology refers to engineering and constructioning the functional systems at very micro level or we can say at atomic level. A Nanometre is one billionth of a meter, roughly atoms. The average human hair about 25,000 nanometers wide.
- 6. What makes the Nanoscale special? High density of structures is possible with small size. Physical and chemical properties can be different at the nano-scale (e.g. electronic, optical, mechanical, thermal, chemical).The physical behaviour of material can be different in the nano-regime because of the different ways physical properties scale with dimension (e.g. area vs. volume).
- 7. Applications of nanotechnology in electrical system Carbon nano tube A Carbon Nanotube is a tube-shaped material, made of carbon, having a diameter measuring on the nanometre scale. Carbon Nanotubes are formed from essentially the graphite sheet and the graphite layer appears somewhat like a rolled-up continuous unbroken hexagonal mesh and carbon molecules at the apexes of the hexagons. Nanotubes are members of the fullerene structural family.
- 8. Computer processing Moore's Law describes a trend of technology. It states that the number of transistors that can be put on a single chip will double every two years.
- 9. ULTRA LOW RESISTIVITY Change from OHMIC Conductivity in metallic materials to loss free BALLISTIC Conductivity in CNT
- 10. USE OF NANOMATERIALS IN CHIPS.. barium titanate [BaTiO3]. lead zirconate titanate [Pb(Zr,Ti)O3]. barium-strontium titanate [(Ba,Sr)-TiO3] 1TB =size of pinhead replacement of copper wires inside semiconductors using carbon nanotubes.
- 11. Advantages of Using Nanotechnology in Electrical systems Increasing the density of memory chips Decreasing the weight and thickness of the screens Nanolithography is used for fabrication of chips. Reducing the size of transistors used in integrated circuits. Improving display screens on electronics devices. Reducing power consumption.
- 12. Disadvantages • Cost is more • Employment reduces • Market crashes • Nanotech Equipment installation cost is high • Not easy to handle • Highly skilled workforce is required • Nanoparticles have bad effect on health
- 13. Future scope of nanotechnology Nanotechnology for flexible Electronics I. Stretchable electronics or flexible electronics is likely to be the future of mobile electronics. II. Potential applications include wearable electronic devices, biomedical uses, compact portable devices, and robotic devices. Nanotechnology for molecular devices I. • Reducing size of electronics is the need of era and this can be achieved with the help of molecules that can be used active devices. Nanotechnology for wireless devices
- 14. “The Next Big Thing is Really Small”