Genetically modified mosquitoes have been created to prevent diseases like dengue, chikungunya, and malaria; not to spread or develop them.

A claim on social media states that governments are using nanotechnology to create mosquitoes and spread disease. The claim is a part of a broader conspiracy theory, which states that viruses such as Zika have been created through the genetic modification (GM) of mosquitoes and that GM mosquitoes have been created for the purposes of surveillance and population control.

According to the Centers for Disease Control and Prevention (CDC), genetically modified mosquitoes are produced to control Aedes Aegypti mosquitoes known more commonly as yellow fever mosquitoes which spread viruses including dengue, Zika, and chikungunya. GM mosquitoes created in a lab have two types of genes: one that keeps the female mosquito offspring from surviving to adulthood and another that makes them identifiable in the dark. The report states that these modified mosquitoes do not stop an ongoing disease outbreak; however, they are meant to help prevent disease outbreaks. The CDC adds that the GM mosquitoes do not pose a risk to people, animals, or the environment.

According to the National Library of Medicine, arboviruses, which cause diseases like dengue, and chikungunya, are challenging to control due to various factors, such as the lack of effective vaccines and antiviral drugs. Some of these, including the Aedes species, are resistant to insecticides. Therefore, it is necessary to resort to approaches that can detect and control the spread of arboviruses. In this regard, the importance of nanobiotechnology has been gradually realized as an emerging technology of the future due to exceptional new benefits, NCBI adds.

According to the World Health Organization, the number of reported dengue cases has increased tenfold in the last twenty years, from 505,430 cases in 2000 to over 2.4 million in 2010 and 5.2 million in 2019. Reported deaths between 2000 and 2015 increased from 960 to 4032, mainly affecting the younger age group.

The main reasoning and logic behind creating genetically modified mosquitoes is to control diseases such as dengue and malaria, and prevent deaths due to these diseases. Therefore, the claim that GM mosquitoes are designed to create disease is baseless.

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Fact Check: Governments are using nanotechnology to create mosquitoes and spread disease. | The Paradise News - The Paradise News

According to a research article published in the journalConstruction Materials, a group of researchers conducted a sustainability analysis related to the prevention of the development of fungus in building structures using nanotechnology.

Study:Sustainability Analysis of Interior Coatings for the Prevention of Fungal Development. Image Credit:bogdanhoda/Shutterstock.com

The oldest mortars discovered in Galilee, in the modern-day state of Israel, date back over 10,000 years and use binders like aerial lime and gypsum.

The cisterns of Jerusalem constructed during the Phoenician era employed hydraulic lime mortars as a binder.

Portland cement was the predominant binder in Portugal around the turn of the century.

Due to its shorter curing time and ease of usage, it has replaced hydraulic lime and hydrated lime and storage, as well as improved mechanical performance.

On the other hand, Portland cement performs poorly because of its high rigidity and breaking susceptibility when applied to aged buildings. Due to their high level of degradation, restoring part or all of the coatings in old structures is required.

Hydraulic lime has recently been identified as a good binder for generating high-grade coatings for old buildings as a result of various investigations.

Nanomaterials are playing an increasingly essential role in civil engineering and a wide range of scientific fields.

Nanotechnology is regarded as one of the most promising future technologies. Materials' quantum mechanical characteristics at the nanoscale (less than 100 nanometers)are crucial for the creation of new products and applications.

TiO2is one of the most investigated nanomaterials by the scientific and industrial communities.

Nanofibers containing silver and copper are excellent for preventing mold in buildings and can be used instead of traditional approaches, such as spraying biocides and paints.

Photocatalytic coatings using silver and silica nanoparticles have been proposed as a method to reduce microorganism contamination in buildings.

Fungi can be found in a variety of places, including inside structures.

Alternaria, Cladosporium, and Epicoccum are the most commonly encountered genera in communities in moderate-to-humid climate zones. The development of fungi on the surface, in cracks, and inside the pores of walls and ceilings are substantially to blame for the degradation in the quality of both building surfaces and the environment.

Seven mortars with various dosages of nano-TiO2 and micro granulated cork additives were investigated and compared to a plain mortar in this study.

The researchers revealed that mortar has the potential to harm the environment, particularly in urban areas.

Its lime content contributes to CO2 emissions. Despite the limited data, they deduced that because these mortars have antifungal qualities, they will last longer.

As a result, they will have a far lesser environmental impact than a simple mortar. Furthermore, they discovered that A2 (mortar with 4% TiO2) is the mortar with the best antifungal performance. In addition, the sample had a strong environmental performance.

B1 (mortar with 2% cork) mortar achieves the finest environmental results. They confirmed that A2 and B1 mortars perform well and can be used in construction by analyzing the mechanical results.

The teamconcluded from this research that Nano- and micro-additive mortars containing TiO2 and cork work better in the environment than currently employed mortars.

Jeronimo, A., Bragana, L., andAguiar, B. (2022). Sustainability Analysis of Interior Coatings for the Prevention of Fungal Development. Construction Materials. Available athttps://www.mdpi.com/2673-7108/2/1/3

Disclaimer: The views expressed here are those of the author expressed in their private capacity and do not necessarily represent the views of AZoM.com Limited T/A AZoNetwork the owner and operator of this website. This disclaimer forms part of the Terms and conditions of use of this website.

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Nanotechnology Utilized to Explore Sustainability in Construction Coatings - AZoNano

Nanotechnology has been applied in various industries, including electronics, medicine, pharmaceuticals, and food and agriculture. This article focuses on the influence of nanoparticles in the food industry.

Image Credit:Natalia Lisovskaya/Shutterstock.com

Nanomaterials are small materials whose size ranges between 1 and 100 nm and are synthesized using chemical and biological methods. Nanoparticles are used in the food industry owing to many unique physical, chemical, and biological properties.

Nanomaterials can promote crop production and protect them from harmful pests and pathogens. In addition, several nanoparticles protect plants from various biotic and abiotic stresses. In the food industry, different types of nanomaterials are used for pre-harvest processing and food packaging.

The continual increase in the global population has increased the demand for food production. However, climate changes and global warming have affected agricultural production.

The food industry incurs massive losses due to food wastage. According to the Food and Agriculture Organization of the United Nations, around 1.3 billion metric tons of consumable food are wasted every year due to inferior post-harvest techniques and issues in the supply chain.

Predominantly, foods are spoiled due to microbial contamination, which reduces the shelf life of food products and affects their quality. Hence, to meet the global food demand and maintain food security, it is important to enhance crop production as well as minimize food wastage.

The development of nanotechnology-based food packaging has proved superior to the conventional packaging that uses plastic barriers.

The major contribution of the nano-food packaging system is that it enhances the shelf life of the food products due to the antimicrobial properties of nanoparticles. The nano-based delivery system has improved the nutraceutical values of the food components.

Scientists have applied nanotechnology to increase food production as well as restore soil health. This is important because excessive use of chemical pesticides and fertilizers has detrimental effects on the soil and humans.

As stated above, nanomaterials, such as titanium oxide nanoparticles, enhance plant growth and seed germination in the model organism Arabidopsis.

Researchers have also reported that the application of nanocrystals significantly improves water uptake potential in plants. The antimicrobial properties of nanoparticles protect plants from pathogen attacks while applying nanofertilizers and nanopesticides decreases environmental pollution.

The food products developed by using nanotechnology methods are referred to as nano-food.

Scientists have applied nanotechnology extensively in post-harvest processing, which has enhanced food bioavailability, texture, taste, and consistency.

Additionally, inorganic and organic nanomaterials are also used for food product preservation.

For instance, silver nanoparticles immobilized in cellulose and collagen sausage casings can effectively removeE. coliandStaphylococcus aureusowing to their strong bactericidal activity. This nanoparticle is not harmful to humans and the environment.

Some of the nanoparticles, such as copper, magnesium oxide, silver, and iron are used in the food industry for their antimicrobial effects. These nanoparticles are used in nanoemulsions or nanoencapsulations.

Scientists have designed various nano-based products, such as nanocoatings, nanofilters and nanoadditives which have immensely benefitted the food industry. Some of the applications are discussed below:

Researchers have developed edible nanocoatings whose main functions are to serve as a barrier from oxygen, carbon dioxide, moisture, UV radiation, and volatiles. Additionally, these are used to prolong shelf life and add flavor, color, enzyme, antioxidant and anti-browning properties to the food product.

Food packaging materials coated with nanoparticles reduce food wastage. Nanocoatings can also be directly used on various food products, including meat, cheese, and confectionery products.

The nanoencapsulation technique is widely used in the food industry. The shelf life of tomato and many other fruits and vegetables have been substantially enhanced by bionano-encapsulated quercetin. This technique has been used in the production of many commercially available products such as nanocapsules containing dietary supplements such as vitamins (A, C, D, E, and K), beta-carotene, and nanogreen tea.

Scientists reported that the application of zinc oxide-encapsulated halloysitepolylactic acid nanocomposites improves the shelf life of the chicken breast fillets and reduces bacterial growth and lipid oxidation.

Nanoadditives are used in the production of food containing low fats, sugars, and salts. These inhibit food contamination and, therefore, prevent food-borne diseases. Two of the commonly used nanomaterials that are used as nanoadditives are silicon dioxide and titanium oxide. Some of the metallic nanoparticles such as iron, silver, carbon, zinc oxide, titanium oxides are used as antimicrobial agents in food products. These nanoparticles either produce reactive oxygen species (ROS) or enhance the heat resistance of the food components.

Nanoemulsions are colloidal particulate systems whose size varies from 10 to 1000 nm. These contain solid spheres with amorphous and lipophilic surfaces. These nanoproducts are used for the decontamination of food packaging equipment.

Glycerine-based nanomicelle products are used to remove traces of pesticide residues from fruits and vegetables. Nanoemulsifies bioactive compounds are used to control microbial contamination without altering the texture or flavors of beverages, while nanoliposomes are used as cargos for nutrients, enzymes, and food antimicrobials.

Nanoparticles, such as clay, silicate, carbon nanotubes, starch nanocrystals, and cellulose-based nanofibers are incorporated in the polymeric matrix to develop nanocomposite plastics with improved properties.

These packaging materials are heat resistant, provide antimicrobial properties, and have low permeability to gases. Interestingly, carbon nanotubes can eliminate unpleasant flavors generated in food products.

The organically modified nanoclays inserted in the polymer matrix or ethylene-vinyl alcohol copolymer and polylactic acid (PLA) biopolymer improve the packaging material's mechanical strength and gas barrier properties.

Nanofilters or nanoscale filters are used to remove microbes, such as bacteria, from milk or water without boiling. These nano-sieves are also used in the filtration of beer.

Image Credit:monticello/Shutterstock.com

The toxicity of the nanoparticles can be attributed to theirdynamic, kinetic, and catalytic properties. Additionally, toxicity could be due to net particle reactivity, agglomeration, and its reaction with the functional environment.

Food packaging nanomaterials are extensively tested and are not toxic to humans. Studies have shown that nanoparticles enter the human body via skin penetration, ingestion, inhalation, or intravenous injections.

Toxicokinetic issues associated with nanoparticles are primarily because they are highly reactive, persistent, non-dissolvable, and non-degradable naturetoxicity increases as the size of metal-based nanoparticles decreases.

Some nanoparticles bind to enzymes and trigger ROS production and oxidative stress, which causes degeneration of mitochondria and induces apoptosis. Previous animal-based studies have shown that nanoparticles-induced toxicity affects organs, such as the liver, kidney, and immune system. Additionally, nanomaterials could cause genetic damages in the cells and result in genotoxicity.

Several regulatory bodies have been formed, such as Food Standards Australia and New Zealand (FSANZ), which determine the safety of nano-based food products, agricultural products, and food packaging materials.

In Europe, the Scientific Committee on Emerging and Newly Identified Health Risks (SCENIHR) evaluates the safety of nanotechnology-based food ingredients before being authorized for human use.

A widely accepted international regulatory system is required to provide proper guidelines to the food industry to ensure the safer development of nano-based food products.

Continue reading: Why Nanotoxicology Should be the First Step Towards a Nanotechnology Future.

Mittal, D. et al. (2020) Nanoparticle-Based Sustainable Agriculture and Food Science: Recent Advances and Future Outlook. Frontiers in Nanotechnology. Available at https://www.frontiersin.org/articles/10.3389/fnano.2020.579954/full

Nile, S.H. et al. (2020) Nanotechnologies in Food Science: Applications, Recent Trends, and Future Perspectives.Nano-Micro Letters.12.45. Available at: https://doi.org/10.1007/s40820-020-0383-9

He, X. et al. (2019) The current application of nanotechnology in food and agriculture. Journal of Food and Drug Analysis. 27 (I). pp. 1-21. Available at:https://doi.org/10.1016/j.jfda.2018.12.002

Bajpai, K. V. et al. (2018) Prospects of using nanotechnology for food preservation, safety, and security. Journal of Food and Drug Analysis. 26(4). pp. 1201-1214. Available at:https://doi.org/10.1016/j.jfda.2018.06.011

Disclaimer: The views expressed here are those of the author expressed in their private capacity and do not necessarily represent the views of AZoM.com Limited T/A AZoNetwork the owner and operator of this website. This disclaimer forms part of the Terms and conditions of use of this website.

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New Perspectives on Nanoparticle Presence in Food - AZoNano

Nanotechnology Market research report encompasses thorough insights about the industry which are based on business intelligence. The report offers market potential for each geological region based on the growth rate, macroeconomic parameters, consumer buying patterns, their inclinations for particular product and market demand and supply scenarios. To bring about an unmatched expertise of the best market opportunities into their applicable markets, businesses can take up this market report. CAGR values for the industry with respect to its rise or drop are estimated in the marketing report for the forecast period of 2022 to 2029.

A large scale market report aids businesses to thrive in the market with an array of insights about the market and the industry. This market research report proves to be an inventive and novel solution for the businesses in todays changing market place. It encompasses key information about the industry, market segmentation, important facts and figures, expert opinions, and the latest developments across the world. The research study performed in the global market report takes into account the local, regional as well as global market.

The nanotechnology market is expected to gain market growth in the forecast period of 2021 to 2028. Data Bridge Market Research analyses the market to grow at a CAGR of 16.45% in the above-mentioned forecast period. High technological advancements and applications of nanotechnology drives the nanotechnology market.

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Major Player :-

The major players covered in the nanotechnology market report are Honeywell International Inc, DuPont, 3M, Sioen Industries, Kimberly-Clark, Glen Raven, Inc, Derekduck Industries Corp, ANSELL LTD, Lakeland Inc, Advanced Electron Beams (AEB), ACS Material, Abraxis, Inc., Bruker, Agilent, Nanosurf AG, Nanoscience Instruments, Hysitron, Inc and Malvern Panalytical Ltd among other domestic and global players.

Competitive Landscape and Nanotechnology Market Share Analysis

The nanotechnology market competitive landscape provides details by competitor. Details included are company overview, company financials, revenue generated, market potential, investment in research and development, new market initiatives, global presence, production sites and facilities, production capacities, company strengths and weaknesses, product launch, product width and breadth, application dominance. The above data points provided are only related to the companies focus related to nanotechnology market.

Nanoscience is defined as the study of extremely small things. The development of nanotechnology is being growing in many fields, as it has numerous applications, such as in chemistry, biology, physics, materials science and engineering. Nanotechnology deals with the use of nanoparticle of size of 1 to 100 nm to be used in all major field of medical.

Rise in theresearch and developmentactivities of major players in the field of nanotechnology is the vital factor escalating the market growth, also rise in the demand of nanotechnology based devices or equipment, rise in the adoption of nanotechnology in medical diagnosis and rise in the emerging technological advancements in nanotech devices are the major factors among others driving the nanotechnology market. Moreover, rise in thegovernmentfunding initiatives and increasing technological advancements and modernization in the healthcare devices will further create new opportunities for nanotechnology market in the forecasted period of 2021-2028.

However, high cost of nano based devices and lack of skilled professionals are the major factors among others which will obstruct the market growth, and will further challenge the growth of nanotechnology market in the forecast period mentioned above.

The nanotechnology market report provides details of new recent developments, trade regulations, import export analysis, production analysis, value chain optimization, market share, impact of domestic and localised market players, analyses opportunities in terms of emerging revenue pockets, changes in market regulations, strategic market growth analysis, market size, category market growths, application niches and dominance, product approvals, product launches, geographic expansions, technological innovations in the market.

Nanotechnology Market Scope and Market Size

The nanotechnology market is segmented on the basis of type, application and end-user industry. The growth amongst these segments will help you analyse meagre growth segments in the industries, and provide the users with valuable market overview and market insights to help them in making strategic decisions for identification of core market applications.

Nanotechnology Market Country Level Analysis

The nanotechnology market is analysed and market size insights and trends are provided by country, type, application and end-user industry as referenced above.

The countries covered in the nanotechnology market report are U.S., Canada and Mexico in North America, Germany, France, U.K., Netherlands, Switzerland, Belgium, Russia, Italy, Spain, Turkey, Rest of Europe in Europe, China, Japan, India, South Korea, Singapore, Malaysia, Australia, Thailand, Indonesia, Philippines, Rest of Asia-Pacific (APAC) in the Asia-Pacific (APAC), Saudi Arabia, U.A.E, South Africa, Egypt, Israel, Rest of Middle East and Africa (MEA) as a part of Middle East and Africa (MEA), Brazil, Argentina and Rest of South America as part of South America.

North America dominates the nanotechnology market due to rise in the presence of technologically advanced healthcare infrastructure, increase in the patient and healthcare practitioners and rise in the presence of numerous nano-technology in this region.

The country section of the nanotechnology market report also provides individual market impacting factors and changes in regulation in the market domestically that impacts the current and future trends of the market. Data points such as consumption volumes, production sites and volumes, import export analysis, price trend analysis, cost of raw materials, down-stream and upstream value chain analysis are some of the major pointers used to forecast the market scenario for individual countries. Also, presence and availability of global brands and their challenges faced due to large or scarce competition from local and domestic brands, impact of domestic tariffs and trade routes are considered while providing forecast analysis of the country data.

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Healthcare Infrastructure growth Installed base and New Technology Penetration

The nanotechnology market also provides you with detailed market analysis for every country growth in healthcare expenditure for capital equipments, installed base of different kind of products for nanotechnology market, impact of technology using life line curves and changes in healthcare regulatory scenarios and their impact on the nanotechnology market. The data is available for historic period 2010 to 2019.

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An absolute way to forecast what future holds is to comprehend the trend today!Data Bridge set forth itself as an unconventional and neoteric Market research and consulting firm with unparalleled level of resilience and integrated approaches. We are determined to unearth the best market opportunities and foster efficient information for your business to thrive in the market. Data Bridge endeavors to provide appropriate solutions to the complex business challenges and initiates an effortless decision-making process.

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Nanotechnology Market Share, Size, Gross Margin, Trend, Future Demand, Analysis by Top Leading Player and Forecast Till 2029 The Oxford Spokesman -...

Overview of Global Nanotechnology Market:

Nanotechnology Market survey report is offered to the business with a complete overview of the market, covering various aspects such as product definition, market segmentation based on various parameters, and the customary vendor landscape. All statistical and numerical information given in the report is symbolized with the help of graphs and charts which facilitates the understanding of facts and figures. All the data and information collected for research and analysis is denoted in the form of graphs, charts or tables for the sensible understanding of users. An international Nanotechnology Market report defines CAGR value fluctuation during the forecast period of 2022 2029 for the market.

An excellent Nanotechnology Market report is composed of myriad of factors that have an influence on the market and include industry insight and critical success factors (CSFs), market segmentation and value chain analysis, industry dynamics, market drivers, market restraints, key opportunities, technology and application outlook, country-level and regional analysis, competitive landscape, company market share analysis and key company profiles. The persuasive Nanotechnology business report is very reliable as all the data and information regarding the Healthcare industry is collected via genuine sources such as websites, journals, annual reports of the companies, and magazines.

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The Global Nanotechnology Market is expected to grow at a CAGR of 16.45% in the forecast period of 2022 to 2029.

As per the market research study, Nanoscience is defined as the study of extremely small things. The development of nanotechnology is being growing in many fields, as it has numerous applications, such as in chemistry, biology, physics, materials science and engineering. Nanotechnology deals with the use of nanoparticle of size of 1 to 100 nm to be used in all major field of medical.

Some of the most important key factors driving the growth of the Global Nanotechnology Market are rapid growth in the R&D activities of major players in the field of nanotechnology, rise in the demand of nanotechnology based devices or equipment, rise in the adoption of nanotechnology in medical diagnosis and rise in the emerging technological advancements in nanotech devices.

The Global Nanotechnology Market is segmented on the basis of Type, Application and End-User Industry.

In terms of the geographic analysis, North America dominates the nanotechnology market due to rise in the presence of technologically advanced healthcare infrastructure, increase in the patient and healthcare practitioners and rise in the presence of numerous nano-technology in this region.

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Global Nanotechnology Market Objectives:

1 To provide detailed information regarding key factors (drivers, restraints, opportunities, and industry-specific challenges) influencing the growth of the Nanotechnology Market

2 To analyze and forecast the size of the Nanotechnology Market, in terms of value and volume

3 To analyze opportunities in the Nanotechnology Market for stakeholders and provide a competitive landscape of the market

4 To define, segment, and estimate the Nanotechnology Market based on deposit type and end-use industry

5 To strategically profile key players and comprehensively analyze their market shares and core competencies

6 To strategically analyze micromarkets with respect to individual growth trends, prospects, and contribution to the total market

7 To forecast the size of market segments, in terms of value, with respect to main regions, namely, Asia Pacific, North America, Europe, the Middle East & Africa, and South America

8 To track and analyze competitive developments, such as new product developments, acquisitions, expansions, partnerships, and collaborations in the Nanotechnology Market

Top Leading Key Manufacturers are: Honeywell International, DuPont, 3M, Sioen Industries, Kimberly-Clark, Glen Raven, Inc, Derekduck Industries Corp, ANSELL LTD, Lakeland Inc, Advanced Electron Beams (AEB), ACS Material, Abraxis, Inc., Bruker, Agilent, Nanosurf AG, Nanoscience Instruments, Hysitron, Malvern Panalytical and others. New product launches and continuous technological innovations are the key strategies adopted by the major players.

Region segment: This report is segmented into several key regions, with sales, revenue, market share (%) and growth Rate (%) of Nanotechnology in these regions, from 2013 to 2029 (forecast), covering: North America, Europe, Asia Pacific, Middle East & Africa and South America

In the end, important application areas of Nanotechnology are also assessed on the basis of their performance. Market predictions along with the statistical nuances presented in the report render an insightful view of the Nanotechnology Market. The market study on Global Nanotechnology Market 2022 report studies present as well as future aspects of the Nanotechnology Market primarily based upon factors on which the companies participate in the market growth, key trends and segmentation analysis.

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Global Nanotechnology Market: Table of Contents

1 Report Overview 2022-2029

2 Global Growth Trends 2022-2029

3 Competition Landscape by Key Players

4 Global Nanotechnology Market Analysis by Regions

5 Global Nanotechnology Market Analysis by Type

6 Global Nanotechnology Market Analysis by Applications

7 Global Nanotechnology Market Analysis by End-User

8 Key Companies Profiled

9 Global Nanotechnology Market Manufacturers Cost Analysis

10 Marketing Channel, Distributors, and Customers

11 Market Dynamics

12 Global Nanotechnology Market Forecasts 2022-2029

13 Research Findings and Conclusion

14 Methodology and Data Source

About Data Bridge Market Research:

Data Bridge set forth itself as an unconventional and neoteric Market research and consulting firm with unparalleled level of resilience and integrated approaches. We are determined to unearth the best market opportunities and foster efficient information for your business to thrive in the market. Data Bridge endeavors to provide appropriate solutions to the complex business challenges and initiates an effortless decision-making process.

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Nanotechnology Market 2022: Comprehensive Study by Key Players 3M, Honeywell, DuPont, ANSELL | Foreseen Till 2029 The Oxford Spokesman - The Oxford...

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Global Quantum Dot Technology Market Segmentation:

Market Segmentation: By Type

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Market Segmentation: By Application

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Quantum Dot Technology Market Analysis, Research Study With Ebioscience Inc., Evident Technologies, Altair Nanotechnology Inc. The New York Irish...

Agricultural Nanotechnology Market research report guides the business in every sphere of trade to take the unmatched decisions, to tackle the toughest business questions and diminish the risk of failure. The report endows with the estimations on the market status, growth rate, future trends, market drivers, opportunities, challenges, entry barriers, risks, sales channels, and distributors. To implement this market research study, competent and advanced tools and techniques viz SWOT analysis and Porters Five Forces Analysis have been employed. Because businesses can accomplish great benefits with the different segments covered in the market research report, every bit of market that can be included here is touched vigilantly.

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Market Overview

Global agricultural nanotechnology market is expected to be growing at a growth rate of 11.7% in the forecast period of 2021 to 2028 and expected to reach USD 256 billion in 2020 to USD 620.3 billion by 2028.

Nanotechnology in agriculture is the application of minimal tools such as sensors, which can be used for agricultural development. Nanotechnology is a new revolution in industries and has the potential to bring about drastic changes in the agricultural industry. Development of new nanotech-based tools and equipment help increase efficiency and overcome challenges faced by the agricultural industry.

The research report offers in-depth insights about Agricultural Nanotechnology market status, market share, growth rate, future trends, market drivers, opportunities and challenges, risks and entry barriers, sales channels, and distributors and analysed well with the Porters Five Forces analysis. This market survey report takes into consideration several industry research, customer insights, market sizing & forecast, competitive analysis, market entry strategy, pricing trends, sustainability trends, innovation trends, technology evolution, and distribution channel assessment. An all-inclusive market document encompasses the top players along with their share by volume in key regions such as APAC, EMEA, and Americas and the challenges faced by them.

Competitive Analysis: Global Agricultural Nanotechnology market

Nanosys Inc, LYC North America, ASML, Zyvex, Oxford Instruments, Nanoco Group plc, ThalesNano Inc., eSpin Technologies, CHEMAT TECHNOLOGY INC., Integran Technologies Starpharma Holdings Limited, and Hyperion Catalysis International, other domestic

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Global Agricultural Nanotechnology Market Scope and Market Size

Global Agricultural Nanotechnology Market, By Product Type (Crop protection, Soil improvement, Water Purification, Diagnostic, Plant Breeding, Nanoparticles Production), Application (Nanoscale Carriers, Nanolignocellulosic Materials, Clay Nanotubes, Biosensors, Others), End User (Farmers, R&DInstitutes, Government Organization, Others), Country (U.S., Canada, Mexico, Germany, Poland, Ireland, Italy, U.K., France, Spain, Netherlands, Belgium, Switzerland, Turkey, Russia, Rest of Europe, Japan, China, India, South Korea, New Zealand, Vietnam, Australia, Singapore, Malaysia, Thailand, Indonesia, Philippines, Rest of Asia-Pacific, Brazil, Argentina, Chile, Rest of South America, UAE, Saudi Arabia, Egypt, Kuwait, South Africa, Rest of Middle East and Africa) Industry Trends and Forecast to 2028.

The Report Includes

The analyzing tools like SWOT analysis and Porters Five Forces tool are utilized to get a clear picture of the Agricultural Nanotechnology market.

It develops and modifies business strategies by employing the growth analysis of the changing competitive dynamics of the industry.

The research methods and tools used to analyze the studies are primary and secondary research.

It encourages the global market decision by an in-depth 8-year forecast along with predictions of market size.

Futuristic outlook on factors driving and restraining the growth of the market.

Comprehensive analysis of the key product segments and their growth estimation for easy understanding.

Provides a competitive edge to the companies operating in the Agricultural Nanotechnology market trends.

Strategic recommendations to the established companies as well as new entrants in the industry.

In-depth analysis of Agricultural Nanotechnology market segments and complete insights of the market to assist in formulating investment strategies.

Key questions answered in the report:

What is the growth potential of the Agricultural Nanotechnology Market?

Which most crucial trends in the various segments will aid in deciphering and persuading the Agricultural Nanotechnology market?

Which regional market will emerge as a pioneer in the years to come?

Which application segment will experience strong growth?

What growth opportunities might arise in the Agricultural Nanotechnology industry in the years to come?

What are the most significant challenges that the Agricultural Nanotechnology Market could face in the future?

Who are the leading companies in the Agricultural Nanotechnology Market?

What are the important areas and countries involved in market growth, are determined by understanding the potential and progress of market?

What growth strategies are the players considering to stay in the Agricultural Nanotechnology Market?

What are various segments of the Agricultural Nanotechnology market, as well as the markets dynamics?

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Agricultural Nanotechnology Market Growth Projections, Demand and Opportunity Assessment By 2028 The New York Irish Emgirant - The New York Irish...

Global Nanotechnology in Medical Devices MarketResearch Report provides key analysis on the market status of the Nanotechnology in Medical Devices with the best facts and figures, meaning, definition, SWOT analysis, expert opinions, and the latest developments across the globe. The report also calculates the market size, Sales, Price, Revenue, Gross Margin, Market Share, cost structure, and growth rate. The report considers the revenue generated from the sales of This Report and technologies by various application segments and Browse Market data Tables.

The Nanotechnology in Medical Devices Market report covers the different market scenarios that have a direct impact on the growth of the market. The Nanotechnology in Medical Devices report study includes information on market factors such as the market dynamics, including drivers, restraints, challenges, threats, potential growth opportunities, market trends, development patterns, financial information, latest technologies, innovations, leading competitors, and regional analysis of the market.

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Following Key Players are Mentioned in this Document:

Stryker Corporation (U.S.) 3M Company (U.S.) St. Jude Medical Inc. (U.S.) Affymetrix Inc. (U.S.) PerkinElmer Inc. (U.S.) Starkey Hearing Technologies (U.S.) Smith & Nephew plc (U.K.). Dentsply International Mitsui Chemicals Inc. AAP Implantate AG,

Analysis of Cardan ShaftMarket by Type

Active Implantable Medical Devices Biochip Portable Material,

Analysis of Cardan ShaftMarket by Application

Treatment Using Diagnostic Using Research Using,

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Regional Analysis for Nanotechnology in Medical Devices Market:

North America (U.S., Canada)Europe (U.K., Italy, Germany, France, Rest of EU)Asia-Pacific (India, Japan, China, South Korea, Australia, Rest of APAC)Latin America (Chile, Brazil, Argentina, Rest of Latin America)Middle East & Africa (Saudi Arabia, U.A.E., South Africa, Rest of MEA)

(*NOTE: To get customization to your liking you can ADD / REMOVE Key Players, Regions, and any other Segments as you need.)

How Covid 19 Affected the Nanotechnology in Medical Devices Market

Since the COVID-19 virus outbreak in December 2019, the disease has spread to almost every country around the globe with the World Health Organization declaring it a public health emergency. The global impacts of the coronavirus disease 2019 (COVID-19) are already starting to be felt, and will significantly affect the Impact Nanotechnology in Medical Devices market in 2020. The outbreak of COVID-19 has brought effects on many aspects, like flight cancellations, travel bans, and quarantines, restaurants closed, all indoor/outdoor events restricted, over forty countries state of emergency declared, massive slowing of the supply chain, stock market volatility, falling business confidence, growing panic among the population, and uncertainty about future.

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In this segment, we will give you the impact of COVID-19, how it affected the Nanotechnology in Medical Devices market, and how it will change the industrys future depending on the current government, private, and public situations. Our expert analysts keep an open eye on every situation that may change the flow of the industry which will help you make the best possible decision for your enterprise.

The objective of the study is to define the Nanotechnology in Medical Devices market sizes of different segments and countries in previous years and to forecast the values for the next five years. The report is designed to incorporate both qualified, qualitative and quantitative aspects of the industry with respect to each of the regions and countries involved in the study. Furthermore, the report also caters the detailed information about crucial aspects such as drivers and restraining factors that will define the future growth of the Nanotechnology in Medical Devices market.

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Nanotechnology in Medical Devices Market 2022: Impact of Covid-19 on the Global Economy, Penetration, and Forecast of Industry Demand by 2028: Stryker...

Jan 28, 2022(Nanowerk News) Humans experience the world in three dimensions, but a collaboration in Japan has developed a way to create synthetic dimensions to better understand the fundamental laws of the Universe and possibly apply them to advanced technologies.They published their results in Science Advances ("Synthetic dimension band structures on a Si CMOS photonic platform").Ring resonator fabricated using silicon photonics and modulated internally generates a frequency ladder. (Image: Yokohama National University)The concept of dimensionality has become a central fixture in diverse fields of contemporary physics and technology in past years, said paper author Toshihiko Baba, professor in the Department of Electrical and Computer Engineering, Yokohama National University. While inquiries into lower-dimensional materials and structures have been fruitful, rapid advances in topology have uncovered a further abundance of potentially useful phenomena depending on the dimensionality of the system, even going beyond the three spatial dimensions available in the world around us.Topology refers to an extension of geometry that mathematically describes spaces with properties preserved in continuous distortion, such as the twist of a mobius strip. When combined with light, according to Baba, these physical spaces can be directed in a way that allows researchers to induce highly complicated phenomena.In the real world, from a line to a square to a cube, each dimension provides more information, as well requires more knowledge to accurately describe it. In topological photonics, researchers can create additional dimensions of a system, allowing for more degrees of freedom and multifaceted manipulation of properties previously inaccessible.Synthetic dimensions have made it possible to exploit higher-dimensional concepts in lower-dimensional devices with reduced complexity, as well as driving critical device functionalities such as on-chip optical isolation, Baba said.The researchers fabricated a synthetic dimension on a silicon ring resonator, using the same approach used to build complementary metal-oxide-semiconductors (CMOS), a computer chip that can store some memory. A ring resonator applies guides to control and split light waves according to specific parameters, such as particular bandwidths.According to Baba, the silicon ring resonator photonic device acquired a comb-like optical spectra, resulting in coupled modes corresponding to a one-dimensional model. In other words, the device produced a measurable property a synthetic dimension that allowed the researchers to infer information about the rest of the system.While the developed device comprises one ring, more could be stacked to cascade effects and quickly characterize optical frequency signals.Critically, Baba said, their platform, even with stacked rings, is much smaller and compact than previous approaches, which employed optical fibers connected to various components.A more scalable silicon photonic chip platform provides a considerable advancement, as it allows photonics with synthetic dimensions to benefit from the mature and sophisticated CMOS commercial fabrication toolbox, while also creating the means for multi-dimensional topological phenomena to be introduced into novel device applications, Baba said.The flexibility of the system, including the ability to reconfigure it as necessary, complements equivalent static spaces in real space, which could help researchers bypass the dimensional constraints of real space to understand phenomena even beyond three dimensions, according to Baba.This work shows the possibility that topological and synthetic dimension photonics can be used practically with a silicon photonics integration platform, Baba said. Next, we plan to collect all topological and synthetic dimension photonic elements to build up a topological integrated circuit.

Excerpt from:
Shining a light on synthetic dimensions - Nanowerk

UA System Division of Agriculture photo by Fred Miller

Jin-Woo Kim, professor of biological and agricultural engineering, was recently named a fellow of the Institute of Electrical and Electronics Engineers.

A professor of biological and agricultural engineering for the experiment station, the research arm of the U of A System Division of Agriculture, and the U of A College of Engineering, Kim has devoted much of his career to developing advanced nanoparticle systems into practical tools for medical, agricultural and manufacturing uses.

IEEE elevated Kim to IEEE fellow status for his contributions to nanoscale fabrication of bio/nano-hybrid materials. The IEEE is a professional organization for the advancement of technology with more than 400,000 members in over 160 countries. Only about 5,000 members have been named IEEE fellows. Kim was among 311 senior members bestowed with the honor in 2022.

"We congratulate Dr. Kim for his induction as fellow of IEEE," said Jean-Franois Meullenet, senior associate vice president for agriculture-research and director of the Arkansas Agricultural Experiment Station. "We know this is a very special honor for him and a great recognition for his breakthrough work in nanoscience. Well deserved."

"It is a prestigious honor and an important career achievement," said Lalit Verma, head of the Department of Biological and Agricultural Engineering. "Dr. Kim's research and development work and innovative technology will enhance the economic well-being and quality of life in Arkansas and the world."

Kim's contributions to nanotechnology have helped develop amethod to treat cancerin collaboration with the U of A for Medical Sciences.

"I have found him to always be an innovative, deep thinker and someone with a special ability to think across disciplines as he collaborates on exciting work related to our cancer detection and drug delivery interests," said Robert J. Griffin, Ph.D., of the UAMS Department of Orthopedic Surgery. "His work on DNA-based nanoparticles was particularly fascinating as he was able to ingeniously use the natural properties of DNA to create multi-functional nanomaterials with exciting potential."

Verma said Kim's work with nanoparticles has the potential to transform many fields of research, ranging from optoelectronics, nanophotonics and nanomedicine to agriculture, food safety and biosecurity. Kim has been developing innovative technology to guide the self-assembly of nanoparticles into specific shapes and functions that he calls "nano-toolbox technology." He has also used the technology to investigate the applications ofnanocellulose created from timber industry waste.

Kim serves as a co-founder and a scientific advisory board member to CelluDot LLC, a Fayetteville start-up company working to turn nanocellulose into materials that can be used for a variety of uses including agricultural adjuvants, medical diagnosis agents, smart fabrics, packing materials and filters.

"Perhaps the highest form of recognition is one received from your peers," said Kim LaScola Needy, dean of the College of Engineering and professor of industrial engineering. "Fellow status in IEEE is extremely competitive and reserved for those who have advanced their profession in a significant way. I am so pleased to see that Dr. Kim has received this much deserved recognition for his important work."

Steve Tung, professor and graduate coordinator for the Department of Mechanical Engineering, also gave his congratulations to Kim on the award.

"In the last two decades, he has contributed greatly to our understanding of bio-nanotechnology and also provided a strong leadership role in his service for the IEEE Nanotechnology Council," Tung said.

Kim has been a member of the IEEE since 1998 when he was pursuing his doctorate in biological and agricultural engineering at Texas A&M University. He has been director of the Bio/Nano Technology Group at the U of A since 2001 and served in many key leadership roles with the IEEE over the years, including vice president for publications and vice president for conferences of the IEEE Nanotechnology Council, as well as the co-editor-in-chief of the IEEE Open Journal of Nanotechnology, IEEE's rapid and open-access journal.

"I am humbled and thankful for the recognition," Kim said. "It feels truly amazing to have my work recognized, but it would not be possible without the support and motivation from many people during my career I am grateful to all!"

"The IEEE Fellow is one of the most prestigious honors of the IEEE and is bestowed upon a very limited number of senior members who have contributed importantly to the advancement or application of engineering, science and technology bringing significant value to our society," said Susan K. Land, outgoing IEEE president and CEO.

To learn more about Division of Agriculture research, visit the Arkansas Agricultural Experiment Station website:https://aaes.uada.edu/. Follow us on Twitter at@ArkAgResearch.

About the Division of Agriculture:The University of Arkansas System Division of Agriculture's mission is to strengthen agriculture, communities, and families by connecting trusted research to the adoption of best practices. Through the Agricultural Experiment Station and the Cooperative Extension Service, the Division of Agriculture conducts research and extension work within the nation's historic land grant education system.The Division of Agriculture is one of 20 entities within the University of Arkansas System. It has offices in all 75 counties in Arkansas and faculty on five system campuses.The University of Arkansas System Division of Agriculture offers all its Extension and Research programs and services without regard to race, color, sex, gender identity, sexual orientation, national origin, religion, age, disability, marital or veteran status, genetic information, or any other legally protected status, and is an Affirmative Action/Equal Opportunity Employer.

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Arkansas Nanotech Researcher Jin-Woo Kim Named IEEE Fellow - University of Arkansas Newswire

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New research results from Linnaeus University opens for a future with more sustainably produced nanotechnology, where limited natural resources can be replaced with, among other things, maize and milk proteins.

Nanotechnology can be found almost everywhere in our daily lives, although it is nearly impossible to see. Nanostructures are materials that have been processed at the atomic level to obtain desired material properties. They are used, for instance, in electronics, diagnostics, and as surface treatments for textiles. Nanotechnology has become an indispensable part of modern life.

Given the wide range of areas of use, it becomes important to develop ecologically sustainable production methods and materials in nanotechnology. The production methods used today often require limited natural resources.

Today, nanostructures are produced from many different types of metals and materials derived from fossil fuels, explains Ian Nicholls, professor of chemistry at Linnaeus University.

Nicholls and his research colleague Subramanian Suriyanarayanan have developed nanostructured surfaces made from natural raw materials found in maize, milk, and crayfish shells. The study, that was published in the journal Scientific Reports, shows that it is possible to create sustainable solutions from biomaterials.

The researchers studied the usability of three renewable and readily available raw materials: zein (a naturally occurring protein found in maize), casein (a type of milk protein), and chitosan (a substance present in, among other things, crayfish shells). The results showed that readily available biomaterials such as these can be used as raw material for nanostructures.

A challenge concerning the use of new biomaterials is how to preserve the properties of the materials over time. In order to come up with an answer to this, the researchers chose to store the nanostructures made of zein, casein, and chitosan for six months and then study how their material properties had changed. Above all, the maize protein zein demonstrated stable results: After six months, no significant differences could be seen in the quality of the nanostructures, which signals promising properties. However, the results were not as good for the nanostructures that had been produced from casein and chitosan, these did not demonstrate the same good stability.

Nonetheless, the study points to the possibility to replace fossil fuels and metals in nanotechnology in the future. More research projects are underway to continue to study the possibility to use renewable and readily available raw materials.

Nanotechnology products are of great benefit to society and it is highly likely that the demand will increase in the future. Therefore, it is very important that these can be produced in a resource-efficient and fossil-free way which we, through our research, have proved is possible, Nicholls concludes.

Read the rest here:
Maize and milk proteins can replace fossil fuels and metals in the production of nanostructured surfaces - Chemie.de

DUBLIN, July 19, 2021 /PRNewswire/ -- The "The Global Market for Nanostructured Coatings, Films and Surfaces (Nanocoatings) 2021-2031" report has been added to ResearchAndMarkets.com's offering.

This report provides an analysis of market size, applications, growth prospects, impact of COVID-19, market challenges, drivers and opportunities.

The use of advanced nanocoatings to mitigate viruses and environmental damage has emerged. Applied to high-transmission surfaces the use of nanocoatings offers continuous disinfection. This is one example of the many functionalities nanocoatings offer to a wide range of products and processes.

Types of nanocoatings covered include:

Market for nanocoatings covered include:

Report contents include:

Key Topics Covered:

1 Executive Summary

2 Overview of Nanocoatings

3 Market Analysis by Nanocoatings Type

4 Market Segment Analysis, by End-user Market

5 Nanocoatings Companies5.1 3M5.2 Abrisa Technologies5.3 Accucoat, Inc.5.4 Aculon, Inc.5.5 Acreo Engineering5.6 Adaptive Surface Technologies5.7 Advanced Materials-JTJ S.R.O5.8 Advanced Nanotech Lab5.9 Advanced Silicon Group5.10 Advanced Soft Materials, Inc.5.11 Advenira Enterprises, Inc.5.12 Aereus Technologies5.13 Agienic Antimicrobials5.14 AKALI Technology5.15 AkzoNobel5.16 ALD Nanosolutions, Inc.5.17 Alfred Clouth Lackfabrik GmbH & Co. KG5.18 Allied Bioscience5.19 AMProtecTion, LLC5.20 Alchemy5.21 Alexium, Inc.5.22 Americhem5.23 AMProtecTion, LLC5.24 AM Technology Ltd.5.25 Analytical Services & Materials, Inc.5.26 Ancatt5.27 Applied Graphene Materials5.28 Applied Nanocoatings, Inc.5.29 Applied Nanotechnologies S.L5.30 Applied Nano Surfaces5.31 Applied Sciences, Inc.5.32 Applied Thin Films, Inc.5.33 Artekya5.34 Ar Brown5.35 ARA-Coatings5.36 Asahi Glass Co. Ltd.5.37 Attonuclei5.38 Autonomic Materials, Inc.5.39 Avaluxe International GmbH5.40 Avanzare Innovacion Tecnologica S.L5.41 Bactiguard AB5.42 BASF Corporation5.43 Battelle5.44 Beneq Oy5.45 BigSky Technologies LLC5.46 Biocote Ltd.5.47 Bio-Fence5.48 Bio-Gate AG5.49 Bioni CS GmbH5.50 Bionic Technology Holding BV5.51 Boral Limited5.52 Buhler Partec5.53 BYK-Chemie GmbH5.54 Cambridge Nanotherm Limited5.55 Cambrios Technologies Corporation5.56 Cardinal Glass Industries5.57 Caparol5.58 Carbodeon Ltd. Oy5.59 Ceko Co. Ltd.5.60 Cellutech AB5.61 CeloNova BioSciences, Inc.5.62 CeNano GmbH & Co. KG5.63 Cellucomp Ltd.5.64 CeloNova BioSciences, Inc.5.65 Cetelon Nanotechhnik GmbH5.66 Cellutech AB5.67 Cidetec5.68 CG2 Nanocoatings, Inc.5.69 Clarcor Industrial Air5.70 Cleancorp Nanocoatings5.71 Clearbridge Technologies Pte. Ltd.5.72 Clou5.73 CMR Coatings GmbH5.74 CNM Technologies GmbH5.75 Coating Suisse GmbH5.76 Corning, Incorporated5.77 Cotec GmbH5.78 Coval Molecular Coatings5.79 Covalon Technologies Ltd.5.80 Covestro AG5.81 Cristal/Tronox5.82 Crossroads Coatings5.83 CSD Nano, Inc.5.84 CTECHnano5.85 Cytonix LLC5.86 Dab FLow Nanotechnology5.87 Daicel FineChem Limited5.88 Daikin Industries, Ltd.5.89 Decorative Products GmbH5.90 Diamon-Fusion International, Inc.5.91 Diarc-Technology Oy5.92 Diatomix, Inc.5.93 DFE Chemie GmbH5.94 Dortrend5.95 Dow Corning5.96 Dropwise Technologies Corporation5.97 DrivePur5.98 DryWired5.99 Dry Surface Technologies LLC5.100 DSP Co. Ltd.5.101 Dupont Teijin Films5.102 Duralar Technologies5.103 Duraseal Coatings5.104 Ecology Coatings LLC5.105 Eeonyx Corporation5.106 Eikos, Inc.5.107 Elcora Advanced Materials5.108 Energenics5.109 Engineered Nanoproducts Germany AG5.110 Enki Technology5.111 ENVIRAL Oberflachenveredelung GmbH5.112 Enviro Specialty Chemicals (ESC)5.113 EnvisionSQ5.114 EonCoat, LLC5.115 Eoxolit5.116 Europlasma NV5.117 Eurama Corporation5.118 Evonik Hanse5.119 F Group Nano LLC5.120 Few Chemicals GmbH5.121 Flora Coatings LLC5.122 FN Nano, Inc.5.123 ForgeNano5.124 Formacoat5.125 Freshlight SOlutions5.126 Fumin Co. Ltd.5.127 FutureCarbon GmbH5.128 Future Nanocoatings5.129 Gaematech5.130 GBneuhaus GmbH5.131 GE Global Research5.132 General Paints5.133 GKN plc5.134 Global Graphene Group5.135 Grafoid, Inc.5.136 GrapheneCA5.137 Graphene Innovation & Technologies (GIT)5.138 Graphematech AB5.139 Green Earth Nano Science, Inc.5.140 Green Millenium, Inc.5.141 Grillo Zinkoxid GmbH5.142 Grox Industries5.143 Grupo Repol5.144 GSI Creos Corporation5.145 GXC Coatings5.146 GVD Corporation5.147 HakusuiTech Co. Ltd.5.148 Hardide Coatings5.149 Hemoteq GmbH5.150 HeiQ Materials AG5.151 Henkel AG & Co. KGaA5.152 Hexigone Inhibitors Ltd.5.153 Hexis S.A5.154 Hiab Products5.155 Hitachi Chemical5.156 Honeywell International, Inc.5.157 Hoowaki LLC5.158 HyperSolar, Inc.5.159 Hy-Power Nano, Inc.5.160 HzO, Inc.5.161 Hygratek, LLC5.162 iFyber, LLC5.163 Imagine Intelligent Materials5.164 Imbed Biosciences, Inc.5.165 Inframat Corporation5.166 Inhibit Coatings5.167 InMat, Inc.5.168 Innovative Surface Technologies, Inc (ISurTech)5.169 Inno-X5.170 Instrumental Polymer Technologies LLC5.171 Integrated Surface Technologies, Inc.5.172 Integran Technologies, Inc.5.173 Integricote5.174 Interlotus Nanotechnologie GmbH5.175 Intumescents Associates Group5.176 Ionics Surface Technologies5.177 Ishihara Sangyo Kaisha, Ltd.5.178 ISTN, Inc.5.179 Italcementi Group5.180 Izovac Ltd.5.181 JNC Corporation5.182 Joma International AS5.183 Jotun Protective Coatings5.184 Kaneka Corporation5.185 Kastus Technologies Ltd.5.186 Kriya Materials B.V5.187 Kon Corporation5.188 Kusumoto Chemicals5.189 Leibniz Institute for New Materials (INM)5.190 Life Air Iaq Ltd.5.191 Lintec of America, Inc.5.192 Lipocoat BV5.193 Liquiglide, Inc.5.194 Liquipel, LLC5.195 Lofec Nanocoatings5.196 Lotus Applied Technology5.197 Lotus Leaf Coatings, Inc.5.198 Luna Innovtions5.199 MACOMA Environmental Technologies, LLC5.200 Maeda-Kougyou Co. Ltd.5.201 Marusyo Sangyo Co. Ltd.5.202 Master Dynamic Limited5.203 Mavro5.204 Maxon Technologies5.205 MDS Coating Technologies Corporation5.206 Melodea Ltd.5.207 Merck Performance Materials5.208 Mesocoat, Inc.5.209 Metal Estalki5.210 Metashield5.211 Mica NanoTech5.212 Millidyne Oy5.213 MMT Textiles Limited5.214 Modumetal, Inc.5.215 Molecular Rebar5.216 Muschert5.217 Muse Nanobots5.218 MVX Protex5.219 N2 Biomedical LLC5.220 Nanjing High Technology Nano Material Co. Ltd. (HTNano)5.221 Nanobiomatters S.I5.222 Nano Came Co. Ltd.5.223 Nano-Care Deutschland AG5.224 Nanoclean Global Private Limited5.225 NanoCover A/S5.226 Nanocyl5.227 Nanofilm, Ltd.5.228 Nanogate AG5.229 Nanohmics5.230 Nanohydrophobics, Inc.5.231 Nanokote Pty Ltd.5.232 NanoLotus Scandanavia ApS5.233 Nanomate Technology5.234 Nanomedic Technologies Ltd.5.235 Nanomech5.236 Nanomembrane5.237 NanoPack, Inc.5.238 NanoPhos SA5.239 NanoPhyll, Inc.5.240 Nanopool GmbH5.241 NanoPure Technologies5.242 nanoSAAR AG5.243 Nanosol AG5.244 Nanosonic, Inc.5.245 The NanoSteel Company, Inc.5.246 Nano Surface Solutions5.247 Nanotech Security Corporation5.248 Nano-Tex, Inc.5.249 NanoTouch Materials, LLC5.250 Nanovere Technologies, LLC5.251 Nanoveu Pte. Ltd.5.252 Nanovis Inc.5.253 Nanova Care Coat5.254 Nanowave Inc.5.255 Nano-X GmbH5.256 Nano-Z Coating Ltd.5.257 NascNano Technology Co. Ltd.5.258 NBD Nanotechnologies5.259 Nanto Protective Coating5.260 NEI Corporation5.261 Nelumbo5.262 Neoxal5.263 Neverwet LLC5.264 NGimat5.265 NIL Technology ApS5.266 NILima Nanotechnologies5.267 Nippon Paper Industries5.268 Nippon Sheet Glass Co. Ltd.5.269 Nissan Chemical Industries Ltd.5.270 NITROPEP5.271 Nobio Ltd.5.272 Norcop5.273 NTC Nanotech Coatings GmbH5.274 NOF Corporation5.275 n-tec GmbH5.276 NTT Advanced Technology Corporation5.277 Oceanit5.278 Opticote Inc.5.279 Optics Balzers AG5.280 Optitune Oy5.281 Opus Materials Technology5.282 Organiclick AB5.283 Oxford Advanced Surfaces5.284 Oxford Nanosystems5.285 Oxlutia5.286 P2i Ltd.5.287 Paperlogic5.288 Perpetual Technologies, Inc.5.289 Philippi-Hagenbuch, Inc.5.290 Picosun Oy5.291 Pioneer Medical Devices GmbH5.292 Pixelligent Technologies5.293 Polymerplus, LLC5.294 Powdermet, Inc.5.295 PPG Industries, Inc.5.296 Promethean Particles Ltd.5.297 Promimic AB5.298 Pureti, Inc.5.299 qLayers5.300 Quantiam Technologies, Inc.5.301 QuatCare LLC5.302 Rads Global Business BV5.303 RAS AG5.304 RBNano5.305 Reactive Surfaces, LLP5.306 Resodyn Corporation5.307 Resysten5.308 Rochling Engineering Plastics5.309 Royal DSM N.V5.310 Rust-Oleum5.311 Saint-Gobain Glass5.312 Sandvik Materials Technology5.313 Schott AG5.314 Schaeffler Technologies AG & Co. KG5.315 Sciessent LLC5.316 Scutum Nano Solutions GmbH5.317 sdst5.318 Seashell Technology LLC-Hydrobead5.319 Seiko PMC /KJ Chemicals5.320 Sensor Coating Systems (SCS)5.321 Sol-Gel Materials and Applications (SGMA)5.322 Sharklet Technologies, Inc.5.323 The Sherwin Williams Company5.324 Shin-Etsu Silicones5.325 SHM5.326 Showa Denko K.K5.327 Sicora Technologies Private Limited5.328 SiO2 Nanotech, LLC5.329 Sketch Co. Ltd.5.330 Slips Technology5.331 Sobinco5.332 SolCold5.333 Sono-Tek Corporation5.334 Sonovia5.335 Souma Co. Ltd.5.336 Starfire Systems, Inc.5.337 Starlight Industry Co. Ltd.5.338 Sub-One Technology, Inc.5.339 Sugino Machine Limited5.340 Sumitomo Electric Hard-Metal Ltd.5.341 Sunex, Inc.5.342 SupraPolix BV5.343 Suncoat GmbH5.344 SuSoS AG5.345 Surfactis Technologies SAS5.346 Surfatek LLC5.347 Surfix BV5.348 Surwon Technology5.349 Suzhou Super Nano-Textile Teco Co5.350 Swift Coat, Inc.5.351 Talga Resources5.352 Taiyo Kogyo Corporation5.353 Takenake Seisakusho Co. Ltd.5.354 Tata Steel5.355 Tecnalia5.356 TEC10-95.357 Tesla Nanocoatings5.358 Thomas Swan5.359 TitanPE Technologies, Inc.5.360 TNO5.361 TopChim NV5.362 Topasol LLC5.363 TopsenTechnology5.364 Toray Advanced Film Co. Ltd.5.365 Toshiba Materials Co. Ltd.5.366 Toto5.367 Toyokosho Co. Ltd.5.368 Toyota Tsusho Corporation5.369 Ube Exsymo Co. Ltd.5.370 Ultratech International, Inc.5.371 USA Nanocoat5.372 Valentis Nanotech5.373 Vestagen Protective Technologies, Inc.5.374 Viaex Technologies, Inc.5.375 Viriflex5.376 Wacker Chemie AG5.377 Wattglass, LLC5.378 X-Therma, Inc.5.379 Xtalic Corporation5.380 Yield Co. Ltd.5.381 Zixilai Environoment5.382 Znshine Solar

6 Nanocoatings Companies No Longer Trading

7 Research Methodology

8 References

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Outlook on the Nanostructured Coatings, Films and Surfaces Global Market to 2031 - 382 Companies Profiled Including Bio-Gate, Tesla Nanocoatings and...

Jan 26, 2022(Nanowerk News) Concrete fractures that are invisible to the naked eye stand out in images produced through a technique created at Rice University.A collaboration between research groups at Rice and the Kuwait Institute for Scientific Research discovered by chance that common Portland cement contains microscopic crystals of silicon that emit near-infrared fluorescence when illuminated with visible light. That led to two realizations. The first was that the exact wavelength of the emission can be used to identify the particular type of cement in a structure.Small cracks in a stressed, painted cement block are barely visible under ambient lighting (left panel) but show up clearly in the near-infrared image at right. Rice University scientists discovered silicon crystals in Portland cement emit fluorescent, infrared light that can reveal early damage in concrete that might otherwise be overlooked. (Image: Weisman Research Group/Nagarajaiah Group/Rice University)The second and perhaps more important is that the near-infrared emission can reveal even very small cracks in cement or concrete. The trick is to apply a thin coat of opaque paint to the concrete when its new. In near-infrared scans, intact concrete appears black and glowing light reveals the tiniest of cracks.The open-access study by the labs of Rice chemist Bruce Weisman, Rice structural engineer Satish Nagarajaiah and Kuwait Institute of Scientific Research investigator Jafarali Parol appears in Scientific Reports ("Nearinfrared photoluminescence of Portland cement").Wei Meng, the papers first author, found the phenomenon while pursuing the Rice teams long-standing work on optical strain sensing with carbon nanotubes.This arose from a project in which we were trying to apply our strain measurement technique to cement and concrete, but we ran into an unexpected problem when we illuminated a specimen coated with a nanotube film, said Weisman, a pioneer in nanotube spectroscopy. We found that one of the peaks in our film spectrum was obscured by much stronger emission coming from somewhere. We never expected it would be from the cement itself.He said he was not aware of any other lab reporting the phenomenon. Eventually, we were able to mask off the specimen so the emission didnt interfere with our strain measurement, he said. But we kept in the backs of our minds that maybe this could be interesting on its own.The emissions unusual spectral signature let the researchers deduce that the source was pure silicon crystals. Minerals called silicates are major components of cement, and we hypothesized that during the high temperature production process, very small amounts decompose to form microscopic silicon crystals, Weisman said. Their emission wavelength tells us that theyre larger than about 10 nanometers, but they cant be much bigger or people would have noticed them long ago.Meng experimented on small concrete blocks painted black and with holes drilled in the middle. These served as focal points to form microcracks that would propagate outward when the blocks were compressed, also cracking the paint. He found the fluorescent signal came through the tiny cracks and could easily be mapped with a raster-scanning laser.Concrete structures need monitoring, and this is one way of monitoring them, said Nagarajaiah, who specializes in infrastructure/structural monitoring, system identification, damage detection and adaptive stiffness structure systems to withstand seismic events. Getting a clear idea of where cracks are can be quite important in structures, especially in the critical places where we know theyre going to be stressed.He said the benefits of better crack detection could extend beyond bridges and buildings to containment structures at nuclear power plants or on ships or the insides of wells and pipelines that are difficult to access.The researchers said a practical approach is to shine light on critical structures and photograph them using a near-infrared camera and narrow-band spectral filter.Cement cracking can be an early symptom of failure, so people who are concerned with the structural integrity and safety of concrete structures want to detect microcracks before they grow, Weisman said.Rice research scientist Sergei Bachilo is co-author of the study. Nagarajaiah is a professor of civil and environmental engineering, of materials science and nanoengineering, and of mechanical engineering. Weisman is a professor of chemistry and of materials science and nanoengineering.

Continued here:
Silicon fluorescence shines through microcracks in cement, revealing early signs of damage - Nanowerk

The Global Nanotechnology for Food Packaging market research study is a full compilation of the information related to all the crucial aspects of the Nanotechnology for Food Packaging industry. The in depth knowledge of market performance over the years is provided in the report along with the actual numbers. The study report based on the Nanotechnology for Food Packaging industry includes the details regarding all the digital advancements made in the Nanotechnology for Food Packaging industry over the time. The Nanotechnology for Food Packaging market report provides detailed knowledge on the investment opportunities in the industry. The study of the past statistics along with the prediction for future size of the market is provided in the research report.

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Top Players:

Amcor PlcBASF SEChevron Phillips Chemical Company, L.L.C.Danaflex Nano LLCDuPont Teijin FilmsHoneywell International Inc.Klckner PentaplastMitsubishi Gas Chemical CompanyNanocorPPG IndustriesSealed AirSonoco Products CompanyTetra Laval International S.A.3M

The technological advancements play an important role in the growth of all the industries globally. The study report includes all the details on the technical advancements in the Nanotechnology for Food Packaging industry over the years. The research report on the Nanotechnology for Food Packaging industry provides an in-depth discussion on the growth patterns and strategies being followed by the players in the Nanotechnology for Food Packaging industry. This study offered in the research report helps vendors to understand the performance of the Nanotechnology for Food Packaging industry over the time. The study also provides users with the in-depth knowledge on numerous product launches in the Nanotechnology for Food Packaging market and their offerings. The research report is recognized being a thorough guide to analyze the Nanotechnology for Food Packaging industry in detail.

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Market segment by Type, the product can be split into

Active PackagingImproved PackagingSmart PackagingNanotechnology enabled food packaging can be divided into three main categories .Improved packaging: Nanoparticles are mixed with polymer chain to improve the gas barrier properties, as well as, temperature, humidity resistance of packaging. The use of nanocomposite in contact with food is approved by United States Food and Drug Adminstration.Active packaging: The use of nanomaterials is helpful to interact directly with food or environment to allow better protection of the product. Several nanomaterils like nanocopper oxide, nanosilver, nanotitanium dioxide, nanomagnesium oxide and carbon nanotubes can provide antimicrobial properties. Presently, the use of silver nanoparticles as antibacterial agents in food packaging is increasing.Intelligent/smart packaging: It is designed for sensing biochemical or microbial changes in the food. It can detect specific pathogen developing in the food or specific gases from food spoiling. Some smart packaging has been developed to use as tracing device for food safety. Currently, Nestle, British Airways and MonoPrix Super market are using chemical sensors, which can easily detect color change

Market segment by Application, split into

Fruits and VegetablesBeveragesPrepared FoodsMeat ProductsBakeryOthers

Furthermore, the Nanotechnology for Food Packaging market report includes the thorough analysis of growth patterns of the Nanotechnology for Food Packaging industry and also strategies followed by the entities in the global Nanotechnology for Food Packaging industry in order to expand. The comprehensive overview over the analysis techniques used by the researchers in the documentation such as SWOT analysis, five point analysis and PESTEL analysis is added in the market study. The Nanotechnology for Food Packaging market study report provides comprehensive information about the product offerings of several market players in the global industry. The research report involves the study of strategic developments made in the Nanotechnology for Food Packaging industry over the time.

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Global Nanotechnology for Food Packaging Market 2021: Report Aims to Outline and Forecast Top Vendors, Industry Research and End User Analysis By...

Fort Collins, Colorado: The latest report from Reports Globe says the Nanotechnology in Medical Equipment Market will grow with a stable CAGR for the coming years. The publication offers a glimpse into the historical market data and the milestones it has reached. The report also includes an assessment of current market trends and dynamics to reflect the evolution of the Nanotechnology in Medical Equipment market. The analysts used the Five Forces analysis and Porters SWOT analysis to detail the various elements of the market. In addition, he studies socio-economic factors, political changes, and environmental norms that can affect the Nanotechnology in Medical Equipment market.

The research report is designed to give readers an unbiased look at the Nanotechnology in Medical Equipment market. Therefore, in addition to statistics, it also contains opinions and recommendations from market experts. This gives readers a holistic view of the global market and its segments. The research report includes a study of the market segments by type, application and region. It helps identify segment-specific drivers, constraints, threats and opportunities.

(Exclusive Offer: Flat 30% discount on this report)

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The Following Companies are Major Contributors to the Nanotechnology in Medical Equipment Market Research Report:

Segment Analysis

The report categorizes the Nanotechnology in Medical Equipment industry by segment, including product type and application. Each segment is valued based on its growth rate and share. In addition, analysts examined potential regions that could prove useful for Nanotechnology in Medical Equipment manufacturers in the coming years. The regional analysis includes reliable value and volume forecasts and thus helps market participants to better understand the Nanotechnology in Medical Equipment industry as a whole.

Nanotechnology in Medical Equipment Market Segmentation, By Type

Nanotechnology in Medical Equipment Market Segmentation, By Application

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Geographical scenario:

-Middle East and Africa (Gulf States and Egypt)-North America (USA, Mexico and Canada)-South America (Brazil etc.)-Europe (Turkey, Germany, Russia, UK, Italy, France, etc.)-Asia Pacific (Vietnam, China, Malaysia, Japan, Philippines, Korea, Thailand, India, Indonesia, and Australia)

Scope of the Report:

The Nanotechnology in Medical Equipment Market Research Report is a comprehensive publication that aims to determine the financial outlook for the market. For the same reason, it offers a detailed understanding of the competitive landscape. It examines some of the leading players, their leadership styles, their status in research and development, and their expansion strategies.

The report also includes product portfolios and a list of products in development. It provides a detailed explanation of the advanced technologies and investments to upgrade existing technologies.

Collectively, this research repository encapsulates data of Nanotechnology in Medical Equipment market to offer strategic decision-making abilities to various investors, business owners, decision-makers as well as policymakers.

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Key questions answered in the report:

1. What is the Keyword Markets Growth Potential?2. Which product segment will get the lions share?3. Which regional market will lead in the coming years?4. Which application segment will grow steadily?5. What growth opportunities could arise in the Nanotechnology in Medical Equipment industry in the coming years?6. What are the main challenges for the Nanotechnology in Medical Equipment market in the future?7. Which companies lead the Nanotechnology in Medical Equipment market?8. What are the main trends that are positively influencing market growth?9. What growth strategies are players considering to stay in the Nanotechnology in Medical Equipment market?

Table of Contents

1 scope of research2 summary3 Competition from manufacturers4 Market size by type5 Market size by application6 Market Size by Region7 Company profileEight value chain and sales channel analyzes9 Analysis of market drivers, opportunities, challenges and risk factors10 key findings from the Nanotechnology in Medical Equipment study11 Appendix

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The inception of Reports Globe has been backed by providing clients with a holistic view of market conditions and future possibilities/opportunities to reap maximum profits out of their businesses and assist in decision making. Our team of in-house analysts and consultants works tirelessly to understand your needs and suggest the best possible solutions to fulfill your research requirements.

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Nanotechnology in Medical Equipment Market Size By Top Key Players Stryker Corporation, Dentsply International, Thermo Fisher Scientific, 3M, Smith +...

Dublin, Feb. 16, 2021 (GLOBE NEWSWIRE) -- The "Breakthrough Innovations in Artificial Photosynthesis" report has been added to ResearchAndMarkets.com's offering.

The gap between energy demand and supply is one of the major global challenges and simultaneously, the replacement of coal, oil and natural gas with carbon dioxide lean or neutral fuels has also become very crucial. The development of technologies accelerating renewable and sustainable energy generation provides alternatives to the current fuel supplies, minimises greenhouse gas emissions, and ultimately reduces the negative impact on the environment.

Artificial Photosynthesis (AP) is considered as one of the emerging technologies with a high potential of delivering sustainable alternatives to the current set of fossil fuels. AP can be used to produce hydrogen which and other specialty chemicals that can be used as feedstocks in a wide range of high-end applications. Successful commercialization of AP at an industrial scale will definitely reduce anthropogenic carbon dioxide emissions by a significant amount and will also enable an easy energy transition in the near future.

Key Topics Covered:

1.0 Executive Summary1.1 Research Scope1.2 Research Process and Methodology1.3 Key Findings

2.0 Overview of Artificial Photosynthesis2.1 Difference between Artificial Photosynthesis and Natural Photosynthesis2.2 Artificial Photosynthesis Stores Renewable Energy in the form of Specialty Chemicals thereby Minimizing Energy Loss2.3 Applications of the Artificial Photosynthesis Process2.4 Types of Artificial Photosynthesis and their Current Status2.5 Hydrogen Evolution is the Rate Determining Step in an Artificial Photosynthesis Process2.6 Benefits and Challenges Involved in Artificial Photosynthesis Processes

3.0 Current and Emerging Artificial Photosynthesis Technologies3.1 Current Enabling Technologies3.1.1 Co-Electrolysis and Photo-Electro catalysis are the Most Established Technologies in Artificial Photosynthesis3.1.2 Co-Electrolysis Produces Syngas which Can be Used as a Feedstock for many Industrial Processes3.1.3 Benefits and Challenges Associated with Co-Electrolysis3.1.4 Co-Electrolysis Processes are established and are Commercialized at a Lower Scale3.1.5 Generation of Hydrogen and Carbon Dioxide Reduction Using Photo electrochemical (PEC) Cells3.1.6 Benefits and Challenges Associated with Photoelectrocatalysis3.1.7 Photoelectrocatalysis Processes for Hydrogen Generation Have High TRL levels3.1.8 Comparative Analysis between Co-Electrolysis and Photoelectrocatalysis3.1.9 Research Trends Enhancing the Commercialization of AP Technologies3.2 Emerging Technologies3.2.1 Hybrid Processes Involve Integration of Biological Processes with AP to Enhance Generation of Specialty Chemicals3.2.2 Pilot Plants for the Hybrid Process Will be Tested with Increased Generation of Specialty Chemicals3.2.3 Nanotechnology-enabled Artificial Photosynthesis Offers High Surface Area and Better Light Absorption3.2.4 Nanotechnology Driven Multi-electron Reduction Process Provides Excellent Energy Conversion Efficiency3.2.5 Pilot Plants for Nano-catalysts Tested for Reverse Combustion of Carbon Dioxide to Generate Hydrocarbons3.2.6 Artificial Leaves are 10 Times More Efficient than Natural Photosynthesis3.2.7 More Research on the Permeable Membranes is carried out to Expedite Commercialization3.2.8 Comparative Analysis of Emerging Technologies3.2.9 Initiatives in Europe for Rapid Commercialization of Artificial Photosynthesis Processes3.2.10 Initiatives in APAC and North America for Rapid Commercialization of Artificial Photosynthesis Processes

4.0 Innovations based on Current and Emerging Technologies4.1 Research Focused on Current Technologies for Artificial Photosynthesis4.2 Research Focused on Emerging Technologies for Artificial Photosynthesis4.3 Stakeholders with Innovative Eco-systems based on Technology Readiness Levels4.4 Successfully Demonstrated Hybrid Processes for Generation of Specialty Chemicals4.5 New Concept Tires to Achieve Circular Economy in the Transportation Industry4.6 Novel Innovations to Enhance the Productivity of AP Processes4.7 Photoelectrocatalysis with Gold Nanocrystals as Catalyst4.8 Photoelectrocatalysis with Molecular Catalyst4.9 Photoelectrocatalysis Using Metal Catalyst and Nitride as Semiconductor4.10 Next-generation Photoelectrochemical Cells (PEC) for Efficient Hydrogen and Carbon Monoxide Generation4.11 Solar Thermal Chemical Reactor for Converting Carbon Dioxide to Hydrocarbons

5.0 Growth Opportunities5.1 Growth Opportunity - R&D Investment5.2 Growth Opportunity - Technology Convergence5.3 Growth Opportunity - R&D Partnership

6.0 Analyst Insights

7.0 Key Contacts

For more information about this report visit https://www.researchandmarkets.com/r/ujagkr

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Breakthrough Innovations in Artificial Photosynthesis, 2020 Report - Growth Opportunities in R&D Investment, Technology Convergence, R&D Partnership -...

Institute of Nano Science and Technology, Mohali an autonomous Institute supported by Department of Science and Technology, Government of India; has invited applications for admission into its Ph. D. program in different areas of Nanoscience and Nanotechnology for the session beginning in August 2021.

Selected students will be enrolled in the Ph. D. program of Indian Institute of Science Education and Research (IISER), Mohali and the Ph. D. degree will be awarded by IISER, Mohali. The major ongoing research areas at INST are given in the detailed Admission Notification at https://inst.ac.in/careers

Selected students will be provided fellowship as per the norms of INST and Government of India. Students with an independent source of fellowship, such as CSIR/UGC-JRF, are also encouraged to apply.

Eligibility: Applicant must have M. Sc. or M. Pharm. or M. Tech. in Basic or Applied Sciences, Engineering or related areas. Those who have appeared for the final year/semester examinations are also eligible, provided that the degree will be granted by the time of joining. Applicant should have qualified at least one national examination out of GATE, CSIR/UGC-NET, JEST, JGEEBILS (TIFR/NCBS), ICMR-JRF, DBT-JRF, DST-INSPIRE or GPAT. Those registered with IISER, Mohali for BS-MS program can apply as per the norms of IISER Mohali.

Application: Applications are to be submitted in the prescribed format available at https://inst.ac.in/careers. Application Fees is Rs.590/- for General/OBC/EWS candidates, and Rs.295/- for SC, ST and PH candidates to be paid online to the bank account given in the Notification.

In addition to the application, an online synopsis has to be submitted at the link provided in the Notification.

A hard copy of application with passport size photograph affixed, along with self-attested copy of certificates proving age, educational qualifications, experience (if any) and reservation category should be sent to The Director, Institute of Nano Science and Technology, Knowledge City, Sector 81, Mohali, Punjab-140308, to reach through registered/ speed post/ courier/ by hand latest by 12th March 2021 in an envelope super scribed as Application for the Ph. D. Program-August 2021.

Eligible applicants will be shortlisted for interview. Applicants may visit INST website frequently to track the latest developments.

For details, visit https://inst.ac.in/careers

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Research at Institute of Nano Science and Technology in Mohali - Mathrubhumi English

Up until 20 years ago, not much was happening in the field of nano technology as it related to food and beverages. However, in the past 15 to 20 years there have been a number of academic papers published, as well as references made, with regard to the technology and how it can be applied to this industry.

In the December issue of Food & Beverage Industry News, Dr Julian McClements distinguished professor at Department of Food Science at the University of Massachusetts, adjunct professor, School of Food Science and Bioengineering at Zhejaing Gongshang Uni, China, and visiting professor, Harvard University, talked about the future of food. And part of that future included nanotechnology.

While the idea of nanotechnology in food is exciting, there are many facets that have yet to be discovered and it is important that when delving into nano technology in this arena that proper research and development is carried out.

Nanoparticles are a key ingredient to nanotechnology, but what are they?

If you look at something like a pumpkin, and you were standing on the moon and looking at the Earth and I held the pumpkin up in my garden, you wouldnt see it because the pumpkin is very tiny compared to the Earth, said McClements. It is about 10 million times smaller. Now, if you compare a nanoparticle to the pumpkin, it is 10 million times smaller than a pumpkin. That gives you an idea of just how tiny nano particles are. But what is incredible is that even though they are that small, we can still fabricate them, characterise them and still use them for different functional purposes.

There are several types of nanoparticles that are available in food. Organic nanoparticles can be made out of fats of lipids, or surfactant micelles that are found in milk. They can be made out of proteins, like casein micelles., or they can be made out of carbohydrates like nano starch. They can be found in nature or they can be made and can be used for different functional purposes to change the texture or bioviability of ingredients.

According to McClements, often when the idea of nanotechnology in foods is brought up, some people think they will have a negative impact on the food chain. However, nature has been putting nanoparticles in food for millions of years.

If you look at breast milk from a mother or milk from cows, they have casein micelles in them and those casein micelles are 50 to 500nm, said McClements. And they are micelles that nature has created to incorporate proteins, phosphates and calcium in a form that can get digested in your body quickly and release all these nutrients and feed the growing infant. Just because something is a growing nanoparticle doesnt mean its dangerous. You can also get other kinds of nanoparticles like oil bodies in oil seeds. Things like soy beans. If you look inside soy beans they have tiny nanoparticles in there that are like parts surrounded by proteins and these can be in the nano range as well.

Alternatively, it is possible to engineer nanoparticles. McClements gives the example of where he grew up in Northern England where there is a titanium dioxide factory near the house where he lived. They made tiny titanium dioxide particles, which were about the same size as a wavelength of light so they scatter the light strongly and they had a very high refracted index that made them good light gatherers.

If you look at the paint on my wall, the white paint has got a lot of titanium dioxide in it to make it look bright, he said. We put the same particles in foods. A lot of foods, like chewing gum, or bakery products, or the dust you get on doughnuts, has got titanium dioxide in it to make it look white and bright. If you are a food manufacturer you might potentially make these nanoparticles, or they might just occur in the product unintentionally. You didnt mean to make them, but the process you use means they end up in your food. When you are making engineered nanoparticles, are trying to do in the food industry is to create some novel effects in our foods, or we are trying to improve food quality, or safety or the nutritional properties of food?

Why use nanoparticles?

An important attribute of nanoparticles if that they are of a very small size. It is possible to take a regular food ingredient and shrink it down to the nano size where it will behave very differently to a normal food ingredient. For example, if a manufacturer is trying to deliver a bioactive component to the human body. If its small enough, it can penetrate through the mucus layer and through epithelial cells and be absorbed into the body, whereas a larger particle would be incapable of achieving such a feat.

This is because the pores in the mucus layer that enclose our intestinal tract are about 400nm. If the particle is small enough it will get through, said McClements. The same with things like microbial cells. They are covered by a coating and if you can get them small enough they can get through. That is one reason you might use nanoparticles in food.

Another characteristic of nanoparticles is the high surface area. If there is a given mass of a material and a manufacturer makes it smaller and smaller, then the surface area increases. That can change the behaviour of the food.

In foods there are a lot of things that happen at the interfaces, said McClements. For example, lipid oxidation in a lot of food products happens at the water/oil interface, or lipid digestion happens there. As you increase the interface, you increase the lipid oxidation, or lipid digestion. In some cases that is good, in other cases it can be detrimental.

If you look at the molecular interaction of a molecule the surface of a material theyre different from the interactions with a normal material. For example, the melting point or the boiling point or the density and chemical reality of the molecule changes as the surface does. If we make things smaller and smaller, we can change the surface chemistry and the way theseparticles behave.

Enhancing food supply

Now that nanoparticles are used in food, how can a food manufacturer employ them into their production line and what are some of the benefits.One of the ways is to make food ingredients invisible, which sounds weird, said McClements. Say you wanted to make a transparent beverage. You want a clear beverage but you want to have an oil-soluble component in it. Normally when you put an oil soluble component in it, it wouldnt mix with water and you would get a layer of oil on top. Or you would use a conventional homogenisation technology and you would use something that is a few hundred nanometres and it would scatter light very strongly and would look something like milk. It would look very creamy. However, if you use special fabrication methods, you can make a system that has got fat in it but it looks transparent. And the way you do that is make the particles very small. Much smaller than the wavelength of light and they scatter light very weakly and therefore they look clear. When the particle size is about the same size as the wavelength of light, they scatter strongly. This is one application that the beverage industry is already using to put soluble flavours and colours and vitamins into beverage products.

Shelf life

It is also possible to use nanotechnology to increase shelf life. Around the world there are currently a lot of microbreweries opening so people are trying to make new types of beers, with all sorts of weird and interesting ingredients, according to McClements. There are often precipitates of sediments in these products., which are also found in dressings and plant-based milks and similar products.

Using nanotechnology you can try and improve the shelf life of these products and improve the stability of these products by making particles very small. There are two ways you can do this. One is to help prevent particle aggregation and the second helps stop creaming and sedimentation, he said. With creaming and sedimentation, if you have a particle in some kind of food product you want it to stay stable so that the particle looks homogenous. Any particle that has two different forces acting on it. One of them is gravity and that will tend to make the particles move upwards. The other is Brownian motion, which is like the random collisions of the molecules revolving around it. This wants to randomise the system. Brownian wants to make it homogenous and gravity wants all the particles to go to the top or bottom depending on the density distance. What you will find is that gravity increases as the particle size increases. This means things tend to separate more quickly as the particles get bigger. Whereas Brownian motion tends to increase as the particles get smaller. When the particles are small enough, the gravity forces are very weak and the Brownian motion is very strong and you can prevent creaming or sedimentation from occurring.

Then there is the ability to change the stability of particles to aggregation. When the particles aggregate they often make the creaming and aggregation faster. McClements did an experiment a few years ago where he made protein stabilised emulsion droplets and made them large and small and his team calculated the colloidal actions between them. What they found was that if there are very small particles, the colloidal interactions forces between the particles were very small.

These are so small the attracted sources that the emulsion stays stable and the product can a have a long shelf life. If the particles are bigger, the attractive forces are much stronger and then you tend to get aggregation and creaming of droplets. This experiment was an example of that by making the droplets very small, you can improve the shelf life of a product. That is the physical stability of foods, said McClements.

Reducing calorie count

Finally, McClements team also did another experiment by trying to make food healthier by trying to reduce its calorie count.

What we wanted to do was make things like sauces and salad dressings, or mayonnaise, which have nice, creamy textures, but with a much lower fat content, he said. What we did in this experiment was we made up two types of protein stabilised emulsions at pH7. One of them was stabilised by lactoferrin which was positive pH7, while the other was stabilised by -lactoglobulin, which is negative at pH7.

We either used the pure proteins or we used a mixture of these different emulsions. If you have pure -lactoglobulins then the particles are negative, and have a very low viscosity like in milk so you could just pour it. If you had pure lactoferrin it was positive, and again you have a very low viscosity and you could just pour it. This is because the droplets have a high charge and they all repel each other and therefore you wont get any aggregation in the system. If you mix these two oppositely charged particles together, they aggregate with each other because of the attraction. They form a 3D network that extends over the whole product, and you get a paste-like, creamy product. You have a very low fat content but you have a high viscosity.

Typically to get this type of viscosity you would have to get 40 to 50 per cent fat in there. This is a potential strategy to get reduced fat in foods to address things like obesity and diabetes.

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Where does nanotechnology fit in the ingredients equation? - FOOD Magazine - Australia

With emissions reduction regulations and the popularity of electric vehicles at an all-time high, automakers are under tremendous pressure to make their internal combustion engine vehicles more fuel efficient and raise the performance of their EVs. This means they are having to look at every possible aspect of a vehicle to help it meet green regulations and consumer desires.

For example, by using nanotechnology-powered glass such as suspended particle device, or SPD, variable light transmission glass in sunroofs instead of the bulky sliding overhead panel we are all familiar with, automakers have been able to provide additional headroom for passengers without having to compromise driving stability and safety by raising the center of gravity in cars and utilities. One automaker has publicly calculated that the use of SPD smart glass can eliminate the need for 54 components in their panoramic sunroofs and reduce weight in the roof by 13 pounds.

Another automaker has calculated that this technology can reduce cabin temperature by 18 degrees without using air conditioning. This not only allows automakers to reduce weight and add space by reducing the size of air conditioning compressors by 40 percent but also reduces CO2 emissions by up to 4 grams per kilometer and increases the driving range of electric vehicles by 5.5 percent.

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3 ways nanotechnology can improve tomorrow's cars - Automotive News

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The agricultural sector is dealing with enormous challenges such as rapid climatic changes, a decrease in soil fertility, macro and micronutrient deficiency, overuse of chemical fertilizers and pesticides, and heavy metal presence in the soil. However, the global population increase has subsequently escalated food demand. Nanotechnology has immensely contributed to sustainable agriculture by enhancing crop production and restoring and improving soil quality.

Nanotechnology is applied in various aspects of agriculture, for example:

This article focuses on the recent applications of nanotechnology for sustainable farming and how it influences the future of agricultural developments.

The poor awareness of the farmers in general and the excessive use of chemicals has severely affected the agricultural land as the toxic agrochemicals pollute the surface and groundwater. The increased use of chemical pesticides also eliminates beneficial microbes, insects, and other wildlife from the soil. The cumulative effect of all of the above results in major degradation of the ecosystem.

Several nanoparticles are commercially used in agriculture. Some of the commonly used nanoparticles are mentioned below:

In the agricultural sector, polymeric nanoparticles are used in the delivery of agrochemicals in a slow and controlled manner. Some of the advantages of polymeric nanoparticles are their superior biocompatibility and minimal impact on non-targeted organisms.

Some of the polymeric nanomaterials used in agriculture are polyethylene glycol, poly(epsilon-caprolactone), poly(lactide-co-glycolides), and poly (-glutamic acid).

Silver nanoparticles are extensively used for their antimicrobial property against a wide range of phytopathogens. Scientists have also reported that silver nanoparticles enhance plant growth.

Many chemical companies use nano alumino-silicate formulations as an efficient pesticide.

These nanoparticles are biocompatible and are used as a disinfecting agent for water.

Carbon nanoparticles such as graphene, graphene oxide, carbon dots, and fullerenes, are used for improved seed germination.

Some of the other nanoparticles that are used in agriculture are zinc oxide, copper oxide nanoparticles, and magnetic nanoparticles.

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The application of nanoherbicides and nanopesticides for the management of weed and pests have significantly increased crop productivity. Different types of nanoparticles such as polymeric nanoparticles and inorganic nanoparticles are utilized for the nanoherbicide formulations.

Scientists have developed various routes for the efficient delivery of herbicides. For example, poly (epsiloncaprolactone) nanoparticles encapsulate atrazine, a herbicide. This nanocapsule showed strong control of the targeted species, reduced genotoxicity level, and could also significantly decrease the atrazine mobility in the soil.

Huge agricultural losses are incurred annually owing to microbial (virus, fungus, and bacteria) infections.

Nanomaterials with specific antimicrobial properties help prevent microbial infestations. Some of the common pathogenic fungi that cause diseases areColletotrichum gloeosporioides,Fusarium oxysporum, Fusarium solani, and Dematophora necatrix.

Several nanoparticles such as nickel ferrite nanoparticles and copper nanoparticles, have a strong antifungal property and are effectively used in disease management. In the case of viral infection treatment, chitosan nanoparticles, zinc oxide nanoparticles, and silica nanoparticles are effective against viral diseases such as mosaic virus for tobacco, potato, and alfalfa.

Scientists have used nanotechnology to design a smart delivery system that would release nutrients in a slow and controlled manner to the targeted site to tackle nutrient deficiency in plants.

Nanofertilizers increase crop productivity by enhancing the availability of essential nutrients to the plant.

A significant increase in the yields of millet and cluster beans was found after the application of nanophosphorus fertilizers in arid conditions. Chitosan nanoparticles suspensions containing nitrogen, phosphorus, and sodium have also increased crop production.

Seed quality is an important factor which crop productivity depends on.

It has been observed that carbon nanotubes can enter the hard seed coat of tomatoes and significantly improve the germination index and plant growth.

Similarly, the germination percentage increased when soybean and corn seeds were sprayed with a multiwall carbon nanotube. Various nano treatments are available to enhance the germination index of plants.

Nanobiosensors are highly sensitive and specific when compared to conventional biosensors. These devices convert biological responses to electrical responses via a microprocessor.

Nanobiosensors offer a real-time signal monitoring and are involved in direct or indirect detection of pathogenic microorganisms, antibiotic resistance, pesticides, toxin, and heavy metal contaminants. This technology is also used to monitor crop stress, soil health, plant growth, nutrient content, and food quality.

The following are some of the strategies devised for sustainable farming using agricultural nanotechnology:

Some of the policy options for the application of nanotechnology for sustainable development of agriculture are listed below:

Acharya, A., and Pal, P.K. (2020) Agriculture nanotechnology: Translating research outcome to field applications by influencing environmental sustainability. Nano Impact, 19, 100232. https://doi.org/10.1016/j.impact.2020.100232

Prasad, R. et al. (2017) Nanotechnology in Sustainable Agriculture: Recent Developments, Challenges, and Perspectives. Frontiers in Microbiology. 8, 1014. https://doi.org/10.3389/fmicb.2017.01014

Pandey, G. (2018) Challenges and future prospects of agri-nanotechnology for sustainable agriculture in India. Environmental Technology & Innovation. 11, 299-307. https://doi.org/10.1016/j.eti.2018.06.012

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How Agricultural Nanotechnology Will Influence the Future of Farming Sustainability - AZoNano