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Smart Materials-Nano 2021

Smart Materials 2021 _ Tentative

Smart Materials-Nano 2021

In the Interdisciplinary field, We proudly confess you to attend a Webinar for 9th Global Conference of Smart Materials And Nano Technology scheduled in June 9-10, 2022 in Frankfurt, Germany. Our Conference covers the new designs and researches of Nano Technology and Material Science. It reaches to the stage of new Scholars, Scientists, Educationalists, and Industrialists. It offers new thoughts among the experts and presenters and get certified by our prestigious world class sorting out with advisory group. The scientific programme Smart Materials 2022 Conference will highlight the newest advances in Materials research at a world level, with a robust emphasis on Interdisciplinary research in both fundamental and applied areas. It provides an opportunity to learn about the complexity of the health issues, discuss interventional procedures, look at new and advances in Nanotechnology and their efficiency and efficacy in diagnosing and treating various diseases and also in Healthcare treatments.

This Conference” SMART MATERIALS-NANO 2022” will focus on Healthcare and Medicine. World-renowned speakers, the most recent techniques, tactics, and the newest updates in fields Nanotechnology and Engineering, Medical Nanotechnology, Material Science, Tissue Engineering are hallmarks of this conference.

Smart Materials-Nano 2022 is an exciting opportunity to showcase the modern technology, the new products of your company, and/or the service your industry may offer to a broad international audience. It covers a lot of topics and it will be a nice platform to showcase their recent researches on Nanotechnology, Material Science and other interesting topics

We invite you, on behalf of the Organizing Committee to this Smart Materials-Nano 2022 meeting with great participation of scientists, industrialists, educationalists, and high authorized committee members related to Smart science fields which will be held on June 9-10, 2022 Frankfurt, Germany.

Track 1: Emerging Smart Materials

The potentiality of a nation to harness nature as well as its ability to cope up with the challenges posed by it is determined by its complete understanding of materials and its ability to improve and produce them for different applications. Advanced Materials are at the main part of many technological developments that touch our lives. Advanced materials have a crucial role to play in the future years because of its multiple purposes and can be of a greater help for whole humanity.

Electronic materials for communication and information technology, optical fibers, laser fibers sensors for the intelligent environment, energy materials for renewable energy and environment, light alloys for better transportation and materials for strategic applications.

Smart Materials and Structures
Carbon Nanotubes
Graphene &Composites
Piezoelectric materials & 3-D printing
Ceramics and textiles industries
Materials in aerospace and defense
Architecture Materials.

Track 2 : Forensic Nanotechnology

Recently, Nanomaterials have found application in the field of Forensic science with appropriate functionalization techniques. It is possible to develop significantly less-toxic Nanomaterials that have a greater advantage over conventionally used dyes and chemicals for the detection of trace evidence and detection of latent fingerprints, DNA, illicit drugs, fraudulent notes or currencies, chemical and biological warfare agents. Fingerprints are developed from several colored materials such as aluminium flake on a dark background and carbon soot on a light background. However, these materials have major drawbacks such as unclear images of the fingerprint. This problem is solved by using Nanotechnology-based materials.

Fingerprints
DNA
Illicit drugs
Fluorescence technique

Track 3: Materials Science and Engineering

Smart materials are designed materials that have one or more properties that can be significantly changed in a controlled fashion by external stimuli, such as stress, moisture, electric or magnetic fields, light, temperature, pH or chemical compounds causes transformation of their material property. Good Materials area unit the premise of the many applications along with sensors and actuators, or artificial muscles, significantly as electrically activated polymers.

Track 4: Smart Sensors

Over the increasing demand of Sensors, there is a need for development of Smart Materials which can be efficient and safe for various sensing application. Synthesis of these Smart Materials can be conducted through several novel fabrication and characterization techniques. The sensor devices that take information from a physical environment and use embedded microprocessors and wireless communication to monitor, examine, and maintain various systems. They have the ability to collect environmental data more accurately with less erroneous noise. Though they are used for a variety of applications, they are most commonly found in monitoring mechanisms, such as smart grids, science applications, and security systems. Magnetism could be exploited from these innovative Smart Materials especially from graphene.

Track 5: Nanotechnology in Neuroscience and Neuroengineering

Neuroengineering concentrates on the development of artificial devices and novel materials to be functionally and structurally interfaced with the central nervous system. Today, there is the expectation that materials science and Nanotechnology will be able to address these challenges and conduct to breakthroughs at the level of the interfaces between Artificial transducers/actuators and living cells. Nanoparticles have ability to penetrate the Blood Brain Barrier (BBB) of in vitro and in vivo models; and therefore can be utilized to develop diagnostic tools as well as Nano-enabled delivery systems that can bypass the BBB in order to make conventional and novel Neurotherapeutic interventions such as drug therapy, gene therapy, and tissue regeneration.

Track 6: Nano Medicine

Nano medicine is the application of Nano science and its technology in the field of medical science. It ranges from the applications of Nanomaterial’s to Biosensors, also for further upcoming applications of molecular Nanotechnology such as biological machines. Most of the biological structures are equal to the size of the Nanomaterial. So the functionalities of those structures can be quickly replaced by means of adding the specific functionality to Nanoparticles.

Drug delivery
Therapy techniques
Diagnostic techniques
Anti-microbial techniques
Cell repair

Track 7: Tissue Engineering

For the repair or reshape of the mutilated tissue, Nanotechnology can be used as part of Tissue Engineering by the usage of suitable Nanomaterial-based scaffolds and growth factors. If it is victorious then tissue engineering may replace conventional treatments like organ transplants. For bone tissue engineering applications, Nanoparticles such as carbon Nanotubes, graphene, carbon Nano cones and tungsten disulfide are used as reinforcing agents to manufacture mechanically strong biodegradable polymeric Nano composites.

Nano fiber self-assembly
Textile technologies
Solvent casting and particulate leaching
Gas foaming
Emulsification freeze-drying
Thermally induced phase separation
Electro spinning
CAD/CAM technologies
Laser-assisted bio printing

Track 8: Polymers Science & Engineering

Material science has a wide range of applications which includes ceramics, composites and polymer materials. Bonding in ceramics & glasses uses both covalent and ionic-covalent types with SiO2 as a basic building block. Ceramics are as soft as clay or else as hard as stone and concrete. Usually, they are in crystalline form. Most glasses contain a metal oxide amalgamated with silica. Applications scale from structural elements such as steel-reinforced concrete to the gorilla glass.

Polymers are also crucial part of materials science. Polymers are the raw materials which are used to make plastics. Specialty plastics are materials with particular characteristics, such as ultra-high strength, electrical conductivity, electro-fluorescence, high thermal stability. Plastics are not divided based on their material but on its properties and applications.

Polymer Solutions
Polymer Microstructures
Synthetic Polymer Chemistry
Polymer Microscopy

Track 9: Optical & Electronic Smart Materials

Optical and Electronic Smart Materials are connected and related with light and electricity. Optical and Electronic materials comprise the study, design, and manufacturing of smart materials that can convert electrical signals to light signals and light signals to electrical signals. The devices which convert them is called Optoelectronic devices. Optoelectronics escalates in the quantum mechanical effect of light. These Optoelectronic technologies consist of laser system, remote sensing systems, fiber communications, and electric eyes medical diagnostic systems.

Track 10: Shape Memory Alloys & Shape Memory Polymers

Shape Memory Alloys have mostly two phases Austenite and Martensite. Austenite phase is symmetric and Martensite phase is less symmetric. When a SMA is in martensite phase at lower temperatures, the metal can be deformed easily into any shape. When the alloy is warmed, it goes through transformation from martensite to austenite. Shape memory alloys are special and unique class of metal alloys when warmed up above certain temperature can recuperate apparent lasting strains which are resulted in it. They have high strength, good elasticity, fatigue resistance, wear resistance, easy fabrication. SMA’s have the ability to be used successfully in seismic area.

Shape-memory polymers (SMPs) are polymeric Smart Materials that have the ability to return from a deformed state (temporary shape) to their permanent shape develop by an external stimulus, such as temperature change. Shape Memory polymers are the compound plastics polymers that have a unique chemical structure. The glass transition temperature (Tg) plays a crucial role in Shape Memory Polymers. Above the Tg these Shape Memory polymers turn into rubber elastic and flexible. These Materials can solve engineering problems with unbelievable efficiency.

Track 11: Nano Science Research in Agriculture and Food Science

Nanotechnology, a promising field of research welcomes in the present decade a wide array of opportunities in the present decade and is expected to give major impulses to technical innovations in a variety of industrial sectors in the future. The potential advantages and benefits of Nanotechnology are enormous. These include agricultural productivity enhancement involves Nanoporous zeolites for slow release and efficient dosage of water and fertilizer, Nanocapsules for herbicide delivery and vector and pest management and Nanosensors for pest detection. The atom by atom arrangement permits the manipulation of Nanoparticles thus influencing their size, shape and orientation for reaction with the targeted tissues. It is now known that many insects have ferromagnetic materials in the head, thorax and abdomen, which act as geomagnetic sensors.

Nanotechnology for Crop Biotechnology
Food Science: Clay & silver Nanoparticles Nano composites
Nanotech Delivery Systems for Pests, Nutrients, and Plant Hormones
Food processing and product development
Nanoparticles and Recycling Agricultural Waste
Food safety and biosecurity

Track 12: Water Treatment Technology

The scarcity of pure water is a major challenge faced by the world in the recent times, due to the effects of pollution combined with global climatic change. Nanotechnology is promising in the field of water treatment due to the fact that Nanomaterial’s show environmentally interesting chemical and physical properties like increased durability of materials against mechanical stress or weathering, high specific surface area and chemical reactivity of Nanoparticles and large absorption as well as adsorption capacity. The adaptation of highly advanced Nanotechnology to traditional process engineering offers new opportunities in technological developments for advanced water and wastewater technology processes. a growing number of contaminants like micro pollutants are entering the water bodies. Nanotechnology in three aspects of water treatment namely ground water treatment, waste water treatment and saline water treatment has been studied in terms of their sustainability.

Water treatment
Waste water treatment
Ground water remediation
Desalination

Track 13: Dentistry Materials

Smart behaviour occurs when a material can sense some stimulus from its environment and react to it in a useful, reliable, reproducible, and reversible manner. These properties have a beneficial application in various fields including dentistry. Materials used in dentistry were designed to be passive and inert, that is, to exhibit little or no interaction with body tissues and fluids. Materials used in the oral cavity were often judged on their ability to survive without interacting with the oral environment. The first inclination that an “active” rather than “passive” material could be attractive in dentistry was the realisation of the benefit of fluoride release from materials.

Fluoride release
Fluoride recharging
Glass-ionomers
Biofilms.

Track 14: Energy Saving Materials

New energy efficient technology based on Smart Materials fast developing and becomes increasingly cost-effective, with much shorter payback periods. Investing in renovation of existing building stock using Energy-Saving Technologies, such as innovative Smart Materials, offer an opportunity for housing energy efficiency. Smart Materials are undertaken only on a limited scale; because of lack of knowledge about their changeable properties and dynamism in that they behave in response to energy fields. Technological chain involved in the design, production and implementation of Smart Materials in refurbishment of existing buildings could allow the energy performance of buildings to influence their value. Distributive electricity and heating networks also experience less load intensity due to Smart Materials, that making better indoor conditions by reducing building‘s exposure to the fluctuation of outdoor conditions.

Track 15: Protein Based Materials

Many endeavours have been made in this field, with the goal of mimicking the smartness of biological systems and ultimately to be applied in real life. Proteins are ideal natural materials for the construction of biological organisms, which hold great potentials in the Smart Materials due to their unique properties. Traditional materials consisting of alloys or polymers can fulfil some of the requirements, but with poor biocompatibility especially in biological processes. Significant progress has been made in the field of Smart Biomaterials, which can respond to surrounding stimuli, such as temperature, pH, chemicals, or ions.

Proteinases
Protocell model
Peptides
Fibers

Track 16: Smart Textiles and Wearable’s

These Smart Textile materials are functional textile materials that can sense and respond to environmental conditions. They have applications in different fields such as medical science and engineering, automotive and aeronautics, personal protective equipment, sports, interior designs etc. They play a very crucial role in science and technology because of their commercial viability. All these innovations on Smart Textiles play a vital role in textile industry in its transformation into a competitive knowledge driven industry. Moreover, combining Smart Wearable’s with internet of things has an intense effect on research, development and applications of wearable technology with increased challenges and opportunities.

Track 17: Green Nanotechnology

It refers to the importance of Nanotechnology to develop the environmental sustainability of processes that are producing negative externalities. For the base of sustainability, they are making Green Nano-products and using Nano-products. The main aim of this technique is to minimize harmful environmental hazards and human health risks associated with the manufacture of Nanotechnology products, and also to boost replacement of existing products with new Nano-products that should be eco-friendly to the people. Nanomaterials or Nanoproducts used under this technology can perform several functions.

Track 18: Biomarkers

Biomarkers in basic and clinical research as well as in clinical practice has become so commonplace that their presence as primary endpoints in clinical trials. Biomarkers that have been well characterized and repeatedly shown to correctly predict relevant clinical outcomes across a variety of treatments and populations; this use is entirely justified and appropriate. It is easy to imagine measurable Biological characteristics that do not correspond to patients' clinical state, or whose variations are undetectable and without effect on health. Surrogate endpoints are a small subset of well-characterized Biomarkers with well-evaluated clinical relevance. A Biomarker consistently and accurately predicts a clinical outcome, either a Benefit or harm.

Track 19: Applications of Material Technology

Smart Materials have the potential to build smart structures and materials. The range of possible products with new designs, quality control, multifunctional products, security element and externally applied field value such as stress, temperature and electric or magnetic fields. It involves composite materials embedded with fibre optics, actuators, sensors, Micro Electro Mechanical Systems (MEMSs), vibration control, sound control, shape control, product health or lifetime monitoring, cure monitoring, intelligent processing, active and passive controls, self-repair (healing), artificial organs, novel indicating devices, designed magnets, damping aero elastic stability and stress distributions.

Track 20: Nanotechnology Applications

Nanotechnology comprises the understanding, manipulation and control of matter. Nanotechnology expands its creation both in devices and materials with a vast range of applications such as electronics, medicine, production and energy. Nanotechnology products and application database provide an overview of how Nanomaterials are utilized in industrial and commercial applications. It mainly concentrates on the study of very small things which are used in various fields such as chemistry, biology, physics, material science and engineering.

Nanoelectronics
Nanophotonics/Nanolasers/Nanorobotics
Nanomedicine
Production and energy
Industrial and commercial application

Summary:

Smart Materials-Nano 2022 is to promote the health awareness which includes plenary speeches, roundtable discussions, abstracts, and workshops patient/physician education Materials, and home monitoring/telemetry. The goal was to bring together an interdisciplinary group to identify important issues relating to Smart Materials and Nanotechnology in Frankfurt, and across the world. Specifically the barriers to a wider recognition of the Smart Materials, and to develop an orchestrated action plan. Over 500 scientists, new scholars, scientists, educationalists, industrialists, nurses, patients, government officials, and representatives from pharmaceutical companies will be participated. This summary provides the recommendations from the conference that will be used to develop an action plan for the Frankfurt Smart Materials Coalition.

Important and Scope:

After more than 20 years of basic Nano science research and more than fifteen years of focused R&D under the NNI, applications of Nanotechnology are delivering in both expected and unexpected ways on Nanotechnology’s promise to benefit society. Nanotechnology is helping to considerably improve, even revolutionize, many technology and industry sectors: information technology, homeland security, medicine, transportation, energy, food safety, and environmental science, among many others. Smart Materials show a certain amount of analogy with respect to biological systems. For instance, piezoelectric hydrophones that show similarity as that of ears with which fish senses vibrations, piezoelectric with an amalgamation of electromechanical coupling, shape-memory Materials with a potential to recollect the original shape and electro-rheological fluids with manipulative viscosity strength etc. Such potential grabbed the attention of research and allow them to think and integrate varied advanced technologies into compact, diverse functional packages with an ultimate aim to develop advanced Smart Materials and revolutionize the research field of Smart Materials-Nano. This event aims at perfect opportunity for the people across the globe to widen their knowledge.

Conference Highlights:

Emerging Smart Materials
Forensic Nanotechnology
Materials Science and Engineering
Smart Sensors
Nanotechnology in Neuroscience and Neuroengineering
Nanomedicine
Tissue Engineering
Polymers Science & Engineering
Optical & Electronic Smart Materials
Shape Memory Alloys & Shape Memory Polymers
Nano Science Research in Agriculture and Food Science
Water Treatment Technology
Dentistry Materials
Energy Saving Materials
Protein Based Materials
Smart Textiles and Wearable’s
Green Nanotechnology
Applications of Material Technology
Nanotechnology Applications

Associations around the globe with Smart Materials and Nanotechnology:

International Conference on Smart Materials and Structures

International Smart Materials & Surfaces conference SMS 2019

International Conference on Material Engineering and Smart Materials

International Conference on the Science and Application of Nanotubes and Low-Dimensional Materials

International Conference on Nanotechnology: Fundamentals and Applications

International Conference on Advanced Materials & Nanotechnology

International Conference on Materials and Nano Materials

International Conference on Nanotechnology and Material Science

International Association of Nanotechnology

International Association of Advanced Materials

Nanotechnology Industries Association

Nanotechnology and Molecular Engineering Student Association

European Nano science and Nanotechnology Association

World Congress on Smart Materials and Polymer Technology

Top Universities in World offering Smart Materials and Nanotechnology

Technical University of Dresden
Karlsruhe Institute of Technology
RWTH Aachen University
Massachusetts Institute of Technology(MIT)
Stanford University
University Of Edinburgh
University of Cambridge
Imperial College London
North-western University
National University of Singapore
Nanyang Technological University, Singapore
University of Oxford
Georgia Institute of Technology
Tsinghua University
Harvard University
Murdoch University (Australia)
Royal Melbourne Institute of Technology University (Australia)
University of Sheffield (UK)

Smart-Nano Materials Global Revenues:

The global Smart Nano Materials market is expected to reach a market size of USD 8.91 Billion by 2027, as a result of major R&D initiatives driving steady revenue growth, according to a current analysis by Emergen Research. Increasing use of Smart Nano Materials in end-user industries such as cosmetics, food and beverages, pharmaceuticals and healthcare, chemicals, electronics etc., is mainly driven by the Materials’ unique physiochemical properties. Increasing product adoption for aerospace applications to improve durability and strength of aircraft part and components, as well as increasing applications in medicinal imaging is expected to drive growth of the market.

Funding Associations:

The Nanotechnology Company to receive the most funding in 2018 so far is Oxford Nanopore with a $100 million.

Silicon Valley start-up DigiLens has taken in $60 million in funding to develop Nanomaterials that make Heads-Up-Displays (HUDs).

Nanotechnology-enabled fluorescent probes to help cancer surgeons visualize tumors during surgery.” The company has raised a total of $17.7 million.

Lyncean Technologies has taken in $19.8 million in funding to develop a miniature synchrotron x-ray source.

NuMat Technologies has taken in $22.3 million so far to solve the world’s toughest challenges at the atomic level.

Market Research

The global market for Smart Materials totalled about $26.0 billion in 2014 and is expected to reach $42.2 billion in 2019, registering a compound annual growth rate (CAGR) of 10.2% for the period 2014-2019.

Smart Materials and NanoTechnology 2020 are the global Smart Materials market size was valued at USD 32.77 billion in 2016 and is anticipated to expertise sturdy growth at a CAGR of 13.5% from 2017 to 2025.

Consumption Demand from Asia-Pacific, Fuelled by Fastest Growth for Phase Change Materials will Drive Global Smart Materials Market to surpass $93 Billion by 2023.

Conference Highlights

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Conference Date	December 15-16, 2021
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8^th Global Conference on Smart Materials and Nanotechnology December 15-16, 2021 Edinburgh, Scotland

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