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Archive for the ‘Nano medicine’ Category

Nanorobotics Market to receive overwhelming hike in Revenues by 2026 – Guru Online News

Thursday, December 5th, 2019

According to Stratistics MRC, the GlobalNanorobotics Marketis accounted for $4.10 Billion in 2017 and is expected to reach $11.88 Billion by 2026 growing at a CAGR of 12.5% during the forecast period. Growing application of nanotechnology and regenerative medicine, rising acceptance and preferment of entrepreneurship and increasing investments by government and universities are the key factors fuelling the market growth. However, high manufacturing cost may hinder the growth of the market.

Nanorobotics is an evolving technology arena that creates robots or machines which have machinery near to the scale of a nanometre (109 meters). It denotes the nanotechnology engineering regulation of planning, designing, and building nanorobots, primarily from molecular components. Nanorobotics is an attractive new field, especially in medicine, which focus on directed drug delivery using nanoscale molecular machines.

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By Type, Nanomanipulator is expected to hold considerable market growth during the forecast period. Nanomanipulator is a specialized nanorobot and microscopic viewing system for working with objects on an extremely small scale. Nanomanipulators are mainly used to influence the atoms and molecules and were among the first nanorobotic systems to be commercially accessible. By geography, Europe dominated the highest market share due to rising aging population and rising governmental healthcare expenditure.

Some of the key players in Nanorobotics include Bruker, JEOL, Thermo Fisher Scientific, Ginkgo Bioworks, Oxford Instruments, EV Group, Imina Technologies, Toronto Nano Instrumentation, Klocke Nanotechnik, Kleindiek Nanotechnik, Xidex, Synthace, Park Systems, Smaract and Nanonics Imaging

Types Covered: Nanomanipulator Magnetically Guided Bacteria-Based Bio-Nanorobotics

Applications Covered: Biomedical Nanomedicine Mechanical Other Applications

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Regions Covered: North Americao USo Canadao Mexico Europeo Germanyo UKo Italyo Franceo Spaino Rest of Europe Asia Pacifico Japano Chinao Indiao Australiao New Zealando South Koreao Rest of Asia Pacific South Americao Argentinao Brazilo Chileo Rest of South America Middle East & Africao Saudi Arabiao UAEo Qataro South Africao Rest of Middle East & Africa

What our report offers: Market share assessments for the regional and country level segments Market share analysis of the top industry players Strategic recommendations for the new entrants Market forecasts for a minimum of 9 years of all the mentioned segments, sub segments and the regional markets Market Trends (Drivers, Constraints, Opportunities, Threats, Challenges, Investment Opportunities, and recommendations) Strategic recommendations in key business segments based on the market estimations Competitive landscaping mapping the key common trends Company profiling with detailed strategies, financials, and recent developments Supply chain trends mapping the latest technological advancements

Free Customization Offerings:All the customers of this report will be entitled to receive one of the following free customization options: Company Profilingo Comprehensive profiling of additional market players (up to 3)o SWOT Analysis of key players (up to 3) Regional Segmentationo Market estimations, Forecasts and CAGR of any prominent country as per the clients interest (Note: Depends of feasibility check) Competitive Benchmarkingo Benchmarking of key players based on product portfolio, geographical presence, and strategic alliances

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Nanorobotics Market to receive overwhelming hike in Revenues by 2026 - Guru Online News

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Robust Growth Of The Nanomedicine Market Predicted Over The Forecast Period 2013 – 2019 – Hitz Dairies

Wednesday, December 4th, 2019

Newest Learn about at the International Nanomedicine Market

The lately printed record via Transparency Market Analysis at the world Nanomedicine marketplace provides resourceful insights referring to the long run possibilities of the Nanomedicine marketplace. The underlying developments, enlargement alternatives, impeding elements, and evident marketplace drivers are totally studied within the introduced record.

As in keeping with the record, the worldwide Nanomedicine marketplace is projected to develop at a CAGR of ~XX% and exceed the worth of ~US$ against the tip of 2029. Additionally, an in-intensity research of the micro and macro-financial elements which are expected to steer the trajectory of the Nanomedicine marketplace all through the forecast length (2019-2029) is integrated within the record.

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Important Insights Associated with the Nanomedicine Market within the Document:

Nanomedicine Market Segments

A radical analysis of the long run possibilities of the Nanomedicine marketplace throughout more than a few areas is tracked within the record.

segmentation, and demanding situations out there were mentioned at duration within the analysis record.

Review of the Cloud Computing Market in Healthcare Trade

As in keeping with the analysis record, the worldwide marketplace for cloud computing within the healthcare business used to be valued at US$1.82 bn in 2011 and is projected to succeed in a worth of US$6.79 bn via the tip of 2018. The marketplace is projected to sign up a exceptional 21.30% CAGR between 2012 and 2018.

The safety of get entry to and knowledge integrity and several other different advantages presented via cloud computing are estimated to inspire the expansion of the marketplace in the following couple of years. Alternatively, information leakage considerations, information integration and consistency, and knowledge relocation are one of the key elements estimated to restrain the expansion of the worldwide cloud computing marketplace within the healthcare business in the following couple of years.

At the moment, the instrument-as-a-provider phase leads the worldwide cloud computing marketplace within the healthcare business. However, the platform-as-a-provider phase is estimated to witness considerable enlargement within the coming years. Moreover, at the foundation of finish use, the non-scientific knowledge techniques marketplace is projected to guide the worldwide marketplace within the close to long run.

A number of the key geographical segments, North The usa is estimated develop at a swift tempo and account for an enormous proportion within the world marketplace for cloud computing within the healthcare business in the following couple of years. The top enlargement of this area may also be attributed to the presence of numerous biopharmaceutical gamers. As well as, the emerging focal point on analysis and construction actions is anticipated to give a contribution widely against the expansion of the marketplace.

Firms Discussed within the Analysis Document

The world marketplace for cloud computing within the healthcare business is very fragmented in nature as no key gamers grasp greater than a proportion of 10% out there at this time. CareCloud, ClearDATA Networks, Oracle Company, Microsoft, Agfa Healthcare, IBM Company, and Merge Healthcare are one of the key gamers running within the world cloud computing marketplace within the healthcare business.

Key Segments of the International Cloud Computing marketplace in Healthcare Trade

International Cloud Computing marketplace in Healthcare Trade, via provider fashions

International Cloud Computing marketplace in Healthcare Trade, via pricing fashions

International Cloud Computing marketplace in Healthcare Trade, via finish customers

International Cloud Computing marketplace in Healthcare Trade, via Geography

This record provides you with get entry to to decisive information equivalent to:

Key highlights of this record

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Essential queries associated with the Nanomedicine marketplace addressed within the record:

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Yuehe Lin named to National Academy of Inventors – WSU News

Wednesday, December 4th, 2019

Yuehe Lin

Yuehe Lin, professor in the School of Mechanical and Materials Engineering, has been named a fellow of the National Academy of Inventors (NAI).

He was cited for his highly prolific spirit of innovation in creating or facilitating inventions that have made a tangible impact on the quality of life, economic development, and welfare of society, according to the selection committee. Lin is one of 168 NAI Fellows for 2019, which is the highest professional distinction accorded solely to academic inventors. The program includes more than 1,000 fellows from 250 universities around the world that hold more than 41,500 U.S. patents.

Dr Lin has made significant research contributions with real-world impact in the fields of energy and health, said Mary Rezac, dean of WSUs Voiland College of Engineering and Architecture. His hugely varied work from finding possible new ways to treat cancer to innovations in water splitting for a future hydrogen economy and development of a better catalyst for fuel cells often comes down to simple solutions that can provide real change and improvements in peoples lives.

With WSU since 2013, Lin, who also holds a joint appointment at Pacific Northwest National Laboratory, conducts research in nanotechnology, particularly development of small-scale devices, materials and analytical systems for biomedical diagnosis, drug delivery and energy and environmental applications.

He has more than 500 peer-reviewed publications, which have been cited more than 50,500 times, according to Google Scholar. He has an h-index, a measure of a scientists productivity and impact, of 112. He has been named among the worlds most highly cited researchers every year from 2014 to 2019 by the Web of Science Group.

He has received funding from the National Institutes of Health, U.S. Centers for Disease Control and Prevention and U.S. Departments of Energy and Defense. He holds more than 20 patents, some of which have been licensed to industrial partners for commercialization.

Lin is a fellow of the American Association for the Advancement of Science, Royal Society of Chemistry and American Institute of Medical and Biological Engineering as well as a member of the Washington State Academy of Sciences. He serves as editor or editorial board member for approximately 20 international journals, including Advance Materials Technologies; Analytica Chimica Acta; Biosensors and Bioelectronics; Electroanalysis; International Journal of Nanomedicine; Research; Journal of Nanoscience and Nanotechnology; and Sensors and Actuators B.

Lin will join the induction ceremony for fellows on April 10 as part of the annual Conference of the National Academy of Inventors in Phoenix, AZ.

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Global Healthcare Nanotechnology Market 2019 by Manufacturers, Countries, Type and Application, Forecast to 2025 – Global Market News 24

Wednesday, December 4th, 2019

The Healthcare Nanotechnology Market report gives a purposeful depiction of the area by the practice for research, amalgamation, and review of data taken from various sources. The market analysts have displayed the different sidelines of the area with a point on recognizing the top players (Amgen, Teva Pharmaceuticals, Abbott, UCB, Roche, Celgene, Sanofi, Merck & Co, Biogen, Stryker, Gilead Sciences, Pfizer, 3M Company, Johnson & Johnson, Smith & Nephew, Leadiant Biosciences, Kyowa Hakko Kirin, Shire, Ipsen, Endo International) of the industry. The Healthcare Nanotechnology market report correspondingly joins a predefined business market from a SWOT investigation of the real players. Thus, the data summarized out is, no matter how you look at it is, reliable and the result of expansive research.

This report mulls over Healthcare Nanotechnology showcase on the classification, for instance, application, concords, innovations, income, improvement rate, import, and others (Anticancer, CNS Product, Anti-infective, Other) in the estimated time from 20192025 on a global stage. In like manner, the overall Healthcare Nanotechnology market report reveals knowledge identified with the type of product, its applications, customers, prime players, and various components agreeing with the account. This first data demonstrates critical contenders and their definite picture of the general Healthcare Nanotechnology market. Other than this, the report further demonstrates expected market power, challenges, and prospects in the Healthcare Nanotechnology market.

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The report gives a broad explanation of the presence of the Healthcare Nanotechnology market in different regions and countries. With an extensive regional analysis of the Healthcare Nanotechnology market, the research analysts make an attempt to unveil hidden growth prospects available for players in different parts of the world. They accurately estimate market share, CAGR, production, consumption, price, revenue, and other crucial factors that indicate the growth of regional markets studied in the report. They also shed light on the presence of prominent players in regional markets, and how it is making a difference in the growth of the regional markets. The main objectives of the research report elaborate the overall market overview on Healthcare Nanotechnology market dynamics, historic volume and value, robust market methodology, current & future trends, Porters Five Forces Analysis, upstream and downstream industry chain, new technological development, cost structure, government policies & regulations, etc.

Healthcare Nanotechnology Market report segmentation on Major Product Type:Nanomedicine, Nano Medical Devices, Nano Diagnosis, Other

The global version of this report with a geographical classification such as

North America (the United States, Canada, and Mexico)Europe (Germany, UK, France, Italy, Russia, Spain, and Benelux)Asia Pacific (China, Japan, India, Southeast Asia, and Australia)Latin America (Brazil, Argentina, and Colombia)The Middle East and Africa

Reason to buy Healthcare Nanotechnology Market Report : 1) Breakdown of the sales data at the country level, with sales, revenue and market share for key countries in the world, from 2014 to 2019.2) The Healthcare Nanotechnology competitive situation, sales, revenue and global market share of top manufacturers are analyzed emphatically by landscape contrast.3) Describe Healthcare Nanotechnology sales channel, distributors, customers, research findings and conclusion, appendix and data source.4) The details of the competitive landscape outlined in this report are likely to provide an analysis of the prominent industry vendors, their growth profiles, strategies, and tactics, etc., that would help investors in decision-making.5) To project the size of Healthcare Nanotechnology submarkets, with respect to key regions (along with their respective key countries).6) To strategically profile the key players and comprehensively analyze their growth strategies.7) Focuses on the key global Healthcare Nanotechnology players, to define, describe and analyze the value, market share, market competition landscape, SWOT analysis and development plans in the next few years.

This report contributes an overall summary of the global Healthcare Nanotechnology market, including business perspectives, market strategies, assembles data related to various business firms, its year of establishment, contact information, market outline, sales revenue, industry segments, the business most prestigious location, and regional presence. The report includes several plans and policies related to the Healthcare Nanotechnology industry, moreover, it describes the management process, product appearance, manufacturing cost, and market volume. In addition, the global Healthcare Nanotechnology market report implicates financial usage, the quantity of product, chain format, demand and supply ratio. This report justifies the various business trends followed by the marketing sectors as well as the distributors of the Healthcare Nanotechnology industry.

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The next part also sheds light on the gap between supply and consumption. Apart from the mentioned information, the growth rate of the Healthcare Nanotechnology market in 2023 is also explained. Finally, the possibility analysis of new project investment is done in the report, which contains a comprehensive SWOT analysis of the Healthcare Nanotechnology market.

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Global Healthcare Nanotechnology Market 2019 by Manufacturers, Countries, Type and Application, Forecast to 2025 - Global Market News 24

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Analysis on the World Market for Biomarkers 2016-2019 & 2025: Key Trends, Discovery Techniques & Applications – Yahoo Finance

Wednesday, December 4th, 2019

Dublin, Dec. 04, 2019 (GLOBE NEWSWIRE) -- The "Biomarkers: Discovery Techniques and Applications - A Global Market Overview 2019" report has been added to ResearchAndMarkets.com's offering.

The report reviews analyzes and projects the global Biomarkers market for the period 2016-2025 in terms of market value in US$ and the compound annual growth rates (CAGRs) projected from 2018 through 2025.

The global market for Biomarkers is dominated by Oncology, in terms of application, estimated at a market share of 41.2% in 2018 and forecast to touch US$15.6 billion in 2019. The overall market for Biomarkers is projected to reach approximately US$50 billion by 2021.

The factors driving the Biomarkers market growth includes elevated demand for personalized medicine, technological advancement, immense utilization of biomarkers in drug discovery and development procedures, massive research on biomarkers, increasing awareness about the role of biomarkers in early disease diagnosis, increase research funding, and many more

Research Findings & Coverage

Key Market Trends

For more information about this report visit https://www.researchandmarkets.com/r/9jqzri

Research and Markets also offers Custom Research services providing focused, comprehensive and tailored research.

CONTACT: ResearchAndMarkets.comLaura Wood, Senior Press Managerpress@researchandmarkets.comFor E.S.T Office Hours Call 1-917-300-0470For U.S./CAN Toll Free Call 1-800-526-8630For GMT Office Hours Call +353-1-416-8900

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Analysis on the World Market for Biomarkers 2016-2019 & 2025: Key Trends, Discovery Techniques & Applications - Yahoo Finance

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Electroplating method makes conductive nanostraws for injecting into and sampling from cells – Chemical & Engineering News

Tuesday, December 3rd, 2019

Credit: ACS Appl. Mater. Interfaces

An array of platinum nanostraws can be used to deliver molecules to cells or sample their contents.

Hollow nanosized needles, or nanostraws, are a promising tool for opening up tiny, temporary holes in cell membranes to deliver molecules or sample a cells contents. Nanostraws could also deliver gene editors into cells for immunotherapy, cutting the need to use costly viruses for the job. But making nanostraws requires expensive manufacturing equipment in a clean room facility, and using nanostraws often requires applying a high voltage in order to open up the cell membrane. Now, researchers have developed a more affordable fabrication approach that can be done in an ordinary lab. Whats more, the new nanostraws are conductive, thus lowering the amount of voltage needed to levels less likely to damage cells (ACS Appl. Mater. Interfaces 2019, DOI: 10.1021/acsami.9b15619).

Researchers made earlier iterations of nanostraws with atomic layer deposition (ALD), which grows thin films of materials such as metal oxides one layer of atoms at a time. In their new approach, Xi Xie of Sun Yat-Sen University and colleagues replaced ALD with electroplating, a simple process which uses an electrical potential to deposit ions in a solution onto a surface.

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They first sputtered a thin layer of gold on the bottom surface of a polycarbonate template containing an array of pores in order to make a conductive base layer. Then they electroplated platinum, gold, or the conductive polymer poly(3,4-ethylenedioxythiophene)three common materials used in electrophysiology studiesfrom the top. The materials lined the pores of the template, creating the hollow nanostraws. The team then used mechanical polishing and oxygen plasma etching to remove the polycarbonate template, revealing an array of vertical nanostraws, each a few hundred nanometers in diameter. According to Xie, their method can work with templates of various pore sizes or pore densities, or with other plating materials.

Ciro Chiappini, a nanomedicine researcher at Kings College London, says this study is a needed and significant step toward developing affordable nanostraws.

Using a representative platinum nanostraw array, Xie and colleagues demonstrated that they could deliver a fluorescent dye into cultured human cells and extract intracellular materials to examine how the levels of an enzyme changed over time.

The conductivity of the new nanostraws allowed the researchers to open tiny pores in the cell membrane by applying a voltage of only 35 V, a safer range for cells compared with 1020 V needed when using nonconductive nanostraws.

These straws could make cellular treatments such as CAR-T therapy faster, safer, and cheaper, says Nicholas A. Melosh, a materials scientist at Stanford University who has done nanostraw research. Typical immunotherapy delivers therapy to a patients immune cells using viruses, which is costly and carries the risk of dangerous immune responses once the cells are put back into the patient, he says. Nanostraws could potentially deliver the necessary therapies to cells without the need for viruses.

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Protein-Protected Metal Nanoclusters That Behave Like Natural Enzymes – Advanced Science News

Tuesday, December 3rd, 2019

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Metal nanoclusters, made up of several to one hundred metal atoms (e.g., Au, Ag, Cu, Pt), are a novel class of intermediate between metal atoms and nanoparticles. As their size (<2 nm) borders on the Fermi wavelength of electrons, metal nanoclusters possess strong photoluminescence in comparison with large metal nanoparticles (>2 nm). This, combined with tunable fluorescence emissions, high photostability, good quantum yields and facile synthesis, make them excellent fluorescent labels for biomedical applications.

However, the reduction of metal ions in liquid solution during synthesis usually causes large nanoparticles rather than small metal nanocluster formation because of their tendency to aggregate. In light of this, proteins whose thiol, amino, and carboxyl groups have a strong affinity for metal atoms are typically used to stabilize metal nanoclusters to protect them from aggregationthese proctected clusters are commonly called protein-protected metal nanoclusters.

Protein-protected metal nanoclusters have excellent biocompatibility and have received considerable attention as a luminescent probe in a number of fields such as biosensing, bioimaging, and imaging-guided therapy. However, apart from unique optical properties, protein-protected metal nanoclusters also possess interesting biological properties such as enzyme-like activity similar to that of natural enzymes; until recently, this has been an overlooked quality that is starting to shine in basic research and practical applications.

Nanozymes is a new termed used to refer to nanomaterials with intrinsic enzyme-like activity. Since professor Yan and coworkers first discovered that nanoparticleswhich are traditionally assumed to be inertpossessed intrinsic enzyme-like activity, a substantial amount of work has focused on further developing and harnessing the advantageous properties of nanozymes, which include high catalytic ability, high stability, and low cost. Nowadays, more than 540 kinds of nanomaterials, which possess intrinsic enzymatic activity, have been reported from 350 laboratories in 30 countries and have been used in biological analysis, environmental treatment, as antibacterial agents, cancer therapy, and antioxidation therapy.

In a recent study published in WIREs Nanomedicine and Nanobiotechnology, Professor Xiyun Yan and Kelong Fan explore the newly developing field of biologically active protein-protected metal nanoclusters, namely those that possess peroxidase, oxidase, and catalase activities, and are consequently used for biological analysis and environmental treatment.

An intriguing example of this is bovine serum albumin-protected gold (Au) nanoclusters, which exhibit peroxidase enzymatic activity to catalyze the oxidation of colored organic substrates, which is currently carried out using natural peroxidases. This method showed an advantage over the natural peroxidase-based methods because bovine serum albumin-protected Au nanoclusters exhibited higher robustness and retained enzymatic activity over a wide range of pH and temperatures. In another example, lysozyme-protected platinum (Pt) nanoclusters exhibit oxidase enzymatic activity which has been applied to the oxidative degradation of pollutants, such as methylene blue in lake water.

The proteins themselves not only provide protection and stabilization during synthesis, but can also provide a myriad of other functions to the nanoclusters. Proteins have been shown to enable in vivo applications because of their enhanced biocompatibility. In fact, a protease-responsive sensor for in vivo disease monitoring was designed by utilizing the peroxidase activity of peptide-protected Au nanoclusters and their ultra-small size dependent tumor accumulation and renal clearance properties.

The sensor was developed using peptides which are the substrates/targets of disease related proteases as protective ligands to synthesis the Au nanoclusters nanozymes, which were then conjugated to a carrier. After reaching the site of disease, the sensor was disassembled in response to the dysregulated protease and the liberated Au nanoclusters were filtered through the kidneys and into urine to produce a rapid and sensitive colorimetric readout of diseases state. By employing different enzymatic substrate as protective ligands for Au nanoclusters, this modular approach could enable the rapid detection of a diverse range of diseases with dysregulated protease activities such as cancer, inflammation, and thrombosis.

These findings have extended the horizon of protein-protected metal nanoclusters properties as well as their application in various fields, says Kelong Fan. Furthermore, in the field of nanozymes, protein-protected metal nanoclusters have emerged as an outstanding new addition. Due to their ultra-small size (<2 nm), they usually have higher catalytic activity, more suitable size for in vivo application, better biocompatibility and photoluminescence in comparison with large size nanozymes. We think that ultra-small nanozymes based on protein-protected MNCs are on the verge of attracting great interest across various disciplines and will stimulate research in the fields of nanotechnology and biology.

Despite the advantages and advancedprogress in the development of protein-protected metal nanoclusters asultra-small nanozymes, there are still some challenges that need to be addressedin future work.

First, most researchers still only rely on bovine serum albumin as both the reducing agent and stabilizer. Since we know that protein-protected metal nanoclusters may retain the bioactivity of the protein ligand, it is necessary to explore methods for synthesizing other new protein-protected metal nanoclusters, which will widen the diagnostic and therapeutic applications of protein-protected metal nanoclusters nanozymes.

Second, there are six types of catalytic reactions in nature: oxidoreductases, transferases, hydrolases, isomerases, ligases, and lyases. Thus far, although many protein-protected metal nanoclusters have demonstrated enzyme activities they all are oxidoreductase-like activities such as peroxidase, oxidase, and catalase. Therefore, there is a ample room to develop other types of nanozymes based on protein-protected metal nanoclusters. In this regard, more understanding of the structures and catalytic mechanisms of protein-protected metal nanoclusters is required in addition to the deeper understanding on natural enzymes themselves.

Third, a considerable number of reports have suggested that ultra-small nanozymes based on protein-protected metal nanoclusters are promising tools for biological analysis. However, little is known about the therapeutic function of these ultra-small clusters in vivo despite their advantages of suitable size and good biocompatibility. It is well known that peroxidase, oxidase, and catalase are main enzymes in biological systems involved in the maintenance of redox homeostasis. Thus, more attention should be paid to the usage of these ultra-small nanozymes based on protein-protected metal nanoclusters as bio-catalysts in various human diseases involved in redox dysregulation such as cancer, inflammation, cardiovascular diseases. It is also possible to employ the products of redox nanozymes to treat other diseases, for example, use the toxic hydroxyl radicals produced by peroxidase nanozymes to treat bacterial infection.

Overall, there is still much room for future research and application of ultra-small nanozymes based on protein-protected metal nanoclusters. It is expected that the enzyme-like activity of protein-protected metal nanoclusters will certainly attract broader interests across various disciplines and stimulate research in the fields of nanotechnology and biology, making these emerging ultra-small nanozymes become novel multifunctional nanomaterials for a number of biomedical applications.

Kindly contributed by the authors.

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Design and Synthesis of Gold-Gadolinium-Core-Shell Nanoparticles as Co | IJN – Dove Medical Press

Tuesday, December 3rd, 2019

Fatima Aouidat,1 Sarah Boumati,2 Memona Khan,1 Frederik Tielens,3 Bich-Thuy Doan,2 Jolanda Spadavecchia1

1CNRS, UMR 7244, CSPBAT, Laboratory of Chemistry, Structures and Properties of Biomaterials And Therapeutic Agents University Paris 13, Sorbonne Paris Cit, Bobigny, France; 2UTCBS Chimie ParisTech University Paris Descartes - CNRS UMR 8258 INSERM U1022 Equipe Synthesis, Electrochemistry, Imaging and Analytical Systems for Diagnostics SEISAD, Paris, France; 3General Chemistry (ALGC), Vrije University of Brussel (Free University Brussels-VUB), Brussel, Belgium

Correspondence: Jolanda Spadavecchia Email jolanda.spadavecchia@univ-paris13.fr

Introduction: The development of biopolymers for the synthesis of Gd(III) nanoparticles, as therapeutics, could play a key role in nanomedicine. Biocompatible polymers are not only used for complex monovalent biomolecules, but also for the realization of multivalent active targeting materials as diagnostic and/or therapeutic hybrid nanoparticles. In this article, it was reported for the first time, a novel synthesis of Gd(III)biopolymerAu(III) complex, acting as a key ingredient of core-shell gold nanoparticles (Gd(@AuNPs).Material and methods: The physical and chemical evaluation was carried out by spectroscopic analytical techniques (Raman spectroscopy, UV-visible and TEM). The theoretical characterization by DFT (density functional theory) analysis was carried out under specific conditions to investigate the interaction between the Au and the Gd precursors, during the first nucleation step. Magnetic features with relaxivity measurements at 7T were also performed as well as cytotoxicity studies on hepatocyte cell lines for biocompatibility studies. The in vivo detailed dynamic biodistribution studies in mice to characterize the potential applications for biology as MRI contrast agents were then achieved.Results: Physicalchemical evaluation confirms the successful design and reaction supposed. Viabilities of TIB-75 (hepatocytes) cells were evaluated using Alamar blue cytotoxic tests with increasing concentrations of nanoparticles. In vivo biodistribution studies were then accomplished to assess the kinetic behavior of the nanoparticles in mice and characterize their stealthiness property after intravenous injection.Conclusion: We demonstrated that Gd@AuNPs have some advantages to display hepatocytes in the liver. Particularly, these nanoconjugates give a good cellular uptake of several quantities of Gd@NPs into cells, while preserving a T1 contrast inside cells that provide a robust in vivo detection using T1-weighted MR images. These results will strengthen the role of gadolinium as complex to gold in order to tune Gd(@AuNPs) as an innovative diagnostic agent in the field of nanomedicine.

Keywords: Gd-gold complex, theoretical study, MRI, relaxivity, biodistribution

This work is published and licensed by Dove Medical Press Limited. The full terms of this license are available at https://www.dovepress.com/terms.php and incorporate the Creative Commons Attribution - Non Commercial (unported, v3.0) License.By accessing the work you hereby accept the Terms. Non-commercial uses of the work are permitted without any further permission from Dove Medical Press Limited, provided the work is properly attributed. For permission for commercial use of this work, please see paragraphs 4.2 and 5 of our Terms.

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Biochips Technologies, Companies, Applications & Markets, 2028 – 94 Companies are Included Along with a Listing of 121 Collaborations Between…

Tuesday, December 3rd, 2019

DUBLIN--(BUSINESS WIRE)--Dec 3, 2019--

The "Biochips - Technologies, Markets & Companies" report from Jain PharmaBiotech has been added to ResearchAndMarkets.com's offering.

This report is an analysis of biochip/microarray markets based on technologies and applications. The report starts with a description of technologies as a basis for the estimation of markets.

Technologies include array comparative genomic hybridization (CGH), copy number variation (CNV), DNA methylation, ChIP-Chip, RNA splice variants, and microRNA. Separate chapters are devoted to protein biochips/microarrays, microfluidics and nanobiotechnology-based nano-arrays.

Various applications of biochips and microarrays are described throughout the report. Areas of application such as point-of-care, genetic screening, cancer, and diagnosis of infections are included. Separate chapters are devoted to applications in drug discovery and development as well as personalized medicine

The report provides current share of each segment: market size in 2018 and projected value for the years 2023 and 2028. Gene expression has the largest share and is an established market. Share of microarray technologies in other areas will grow with the maximum growth in RNA splice variants followed by epigenetics.

The growth in protein microarrays is somewhat less, partly because it is more mature than the other submarkets and has already shown considerable growth in the past. The impact of next generation sequencing on segments of microarray markets is identified. Customer requirements and unmet needs are described. Markets are also analyzed according to geographical areas.

Brief profiles of companies involved in biochip/microarray technologies are provided. Currently selected 94 companies are included along with a listing of 121 collaborations between companies. The text is supplemented by 21 tables, 11 figures and 140 references to literature.

Key Topics Covered:

0. Executive Summary

1. Introduction

Definitions of biochips/microarray

Terms used for biochips

Historical aspects of biochip/microarray technology

Relation of microarrays to other technologies

Applications of biochips/microarrays

Advantages of biochips/microarrays

2. Biochip and Microarray Technologies

Introduction

Nucleic acid amplification and microarrays

PCR on a chip

Fast PCR biochip

Multiplex microarray-enhanced PCR for DNA analysis

Universal DNA microarray combining PCR and ligase detection reaction

NASBA combined with microarray

Rolling circle amplification on microarrays

LiquiChip-RCAT

Multiplexed Molecular Profiling

Genomewide association scans

Whole genome microarrays

GeneChip Human Genome Arrays

Arrayit's H25K

Transposon insertion site profiling chip

Standardizing the microarrays

Optical Mapping

Imaging technologies used for detection in biochips/microarray

Fluorescence and chemiluminescence

MALDI-MS imaging and tissue microarrays

Surface plasmon resonance technology for microarrays

Microarray imaging systems

Vidia Microarray Imaging Systems

GenePix 4100A Microarray Scanner

Tecan LS Reloaded

Microarrays based on detection by physico-chemical methods

Electrical biochips

Photoelectrochemical synthesis of DNA microarrays

Microchip capillary electrophoresis

Strand displacement amplification on a biochip

Biosensor technologies for biochips

DNA-based biosensors

Arrayed Imaging Reflectometry

Digital electronic biosensor chips

Phototransistor biochip biosensor

Applications of biosensor biochips

Biosensors in food safety

Cholesterol biosensor

Glucose biosensors

Biochips and microarrays for cytogenetics

Chromosomal microarrays

Comparative genomic hybridization

Array-based CGH

NimbleGen CGH arrays

Single-cell array CGH

Regulatory requirements for array CGH

Combination of FISH and gene chips

Combination of CGH and SNP microarray platforms

Fish-on-chip

SignatureChip

Tissue microarrays

Pathology tissue-ChIP

Carbohydrate microarrays

RNA profiling

RNA splice variants

RIP-Chip

miRNAs

Microarrays for miRNAs

Microarrays vs qPCR for measuring miRNAs

Quantitative analysis of miRNAs in tissue microarrays by ISH

Exon microarrays

Microarrays & DNA sequencing

Microarray-based emerging DNA sequencing technologies

Exome sequencing for study of human variation

High-throughput array-based resequencing

Sequencing by hybridization

SOLiD-System based ChIP-Sequencing

Next generation sequencing vs microarrays for expression profiling

Microarrays for synthetic biology

Arrayit microarray platform for synthetic biology

Microarray-based gene synthesis

Magnetophoretic array-based cell sorting for further studies

3. Microfluidics-based Biochips and Microarrays

Introduction

Use of technologies from other industries in microfluidics

Digital dispensing

Lab-on-a-chip

Amplification of fluorescence signal from lab-on-a-chip

Use of glass in microfluidics

LabChip

LabCD

Lab-on-a-brain

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Invicro LLC Joins Accenture’s INTIENT Network to Help Advance Innovation in Drug Discovery and Scientific Research – BioSpace

Tuesday, December 3rd, 2019

Dec. 3, 2019 14:48 UTC

BOSTON--(BUSINESS WIRE)-- Today, InvicroLLC, a Konica Minolta Company, has joined Accentures open partner ecosystemthe INTIENT Networkwhich is designed to help solution providers, software vendors and life sciences companies team more effectively to accelerate drug discovery and improve patient outcomes. Invicro is a global provider of imaging biomarkers, core lab services, advanced analytics and software solutions for drug discovery and development.

The INTIENT Network is an integral part of INTIENT Research, Accentures cloud-based informatics suite that is focused on improving productivity, efficiency and innovation in the drug discovery process. Accenture is currently working with a select number of independent software vendors and organizations, including Invicro, to integrate their technology and content into the INTIENT platform.

Through the INTIENT Network, research scientists can access Invicros industry-leading imaging software platforms, iPACS and VivoQuant, that help transform the way translational medicine research is conducted. Invicro joining the network contributes to a robust ecosystemone that offers the most advanced, cloud-based informatics solutions to help accelerate precision medicine studies across all therapeutic areas.

By providing access to Invicros novel software solutions, researchers will easily gain insights from complex biological data at each drug discovery and development phase, stated Mr. Chris Fuller, Vice President of Software for Invicro. The advanced and collaborative capabilities offered by Invicro and Accenture will improve operational efficiencies and help streamline drug discovery efforts by using a data-driven approach.

Invicros capabilities will be available to life sciences companies within a common informatics framework that handles core infrastructure requirements such as data ingestion and cleansing, security and IP management, request management workflow, enterprise search, data governance, and collaboration environments.

Imaging data is enabling some incredible opportunities in early drug discovery, yet there remain challenges around the effective image management, interpretation, and sharing, said Joe Donahue, managing director, Accenture Life Sciences. I look forward to working closely with Invicro to leverage their capabilities to help address these challenges which will, ultimately, lead to better outcomes for patients.

About Invicro Headquartered in Boston, MA, Invicro was founded in 2008 and today has offices, laboratories and clinics around the world, from coast-to-coast within the United States, to Europe and Asia that support leading pharmaceutical and biotechnology companies and top research universities. Invicros multi-disciplinary team provides solutions to help enhance the discovery and development of life-changing drugs across all stages of the drug development pipeline (Phase 0-IV), leveraging all imaging modalities within a broad scope of therapeutic areas, including neurology, oncology, cardiology, and pulmonary. Invicros quantitative biomarker services, advanced analytics tools, and clinical operational services are backed by their industry-leading software informatics platforms, VivoQuant and iPACS.

Invicro is a Konica Minolta company and part of their precision medicine initiative, which aims to accelerate personalized medicine, discover novel therapeutic targets and develop innovative therapeutic technologies for unmet medical needs. Along with their sister company Ambry Genetics, Invicro develops and leverages the latest approaches in quantitative biomarkers including imaging, quantitative pathology and genomics. Visit http://www.invicro.com for more information

About Konica Minolta Konica Minolta, Inc. (Konica Minolta) is a global digital technology company with core strengths in imaging and data analysis, optics, materials, and nano-fabrication. Through innovation, Konica Minolta creates products and digital solutions for the betterment of business and societytoday and for generations to come. Across its Business Technologies, Healthcare, and Industrial-facing businesses, the company aspires to be an Integral Value Provider that applies the full range of its expertise to offer comprehensive solutions to the customers most pressing problems, works with the partners to ensure the solutions are sustainable, anticipates and addresses tomorrows issues, and tailors each solution to meet the unique and specific needs of its valued customers. Leveraging these capabilities, Konica Minolta contributes to productivity improvement and workflow change for its customers and provides leading-edge service solutions in the IoT era. Headquartered in Tokyo and with operations in more than 50 countries, Konica Minolta has more than 43,000 employees serving approximately two million customers in over 150 countries. Konica Minolta is listed on the Tokyo Stock Exchange, (TSE4902). For further information, visit: https://www.konicaminolta.com/.

View source version on businesswire.com: https://www.businesswire.com/news/home/20191203005690/en/

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Nanomedicine Market Healthy Pace throughout the Forecast by 2023 – Crypto News Byte

Thursday, November 21st, 2019

Overview:

Nanomedicine is an offshoot of nanotechnology, and refers to highly-specific medical intervention at the molecular scale for curing diseases or repairing damaged tissues. Nanomedicine uses nano-sized tools for the diagnosis, prevention and treatment of disease, and to gain increased understanding of the complex underlying pathophysiology of the disease. It involves three nanotechnology areas of diagnosis, imaging agents, and drug delivery with nanoparticles in the 11,000 nm range, biochips, and polymer therapeutics.

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Majority of nanomedicines prescribedcurrently, allow oral drug delivery and its demand is increasing significantly. Although these nanovectors are designed to translocate across the gastrointestinal tract, lung, and bloodbrain barrier, the amount of drug transferred to the organ is lower than 1%; therefore improvements are challenging. Nanomedicines are designed to maximize the benefit/risk ratio, and their toxicity must be evaluated not only by sufficiently long term in vitro and in vivo studies, but also pass multiple clinical studies.

Market Analysis:

The Global Nanomedicine Market is estimated to witness a CAGR of 17.1% during the forecast period 20172023. The nanomedicine market is analyzed based on two segments therapeutic applications and regions.

The major drivers of the nanomedicine market include its application in various therapeutic areas, increasing R&D studies about nanorobots in this segment, and significant investments in clinical trials by the government as well as private sector. The Oncology segment is the major therapeutic area for nanomedicine application, which comprised more than 35% of the total market share in 2016. A major focus in this segment is expected to drive the growth of the nanomedicine market in the future.

Regional Analysis:

The regions covered in the report are the Americas, Europe, Asia Pacific, and Rest of the World (ROW). The Americas is set to be the leading region for the nanomedicine market growth followed by Europe. The Asia Pacific and ROW are set to be the emerging regions. Japan is set to be the most attractive destination and in Africa, the popularity and the usage of various nano-drugs are expected to increase in the coming years. The major countries covered in this report are the US, Germany, Japan, and Others.

Therapeutic Application Analysis:

Nanomedicines are used as fluorescent markers for diagnostic and screening purposes. Moreover, nanomedicines are introducing new therapeutic opportunities for a large number of agents that cannot be used effectively as conventional oral formulations due to poor bioavailability. The therapeutic areas for nanomedicine application are Oncology, Cardiovascular, Neurology, Anti-inflammatory, Anti-infectives, and various other areas. Globally, the industry players are focusing significantly on R&D to gain approval for various clinical trials for future nano-drugs to be commercially available in the market. The FDA should be relatively prepared for some of the earliest and most basic applications of nanomedicine in areas such as gene therapy and tissue engineering. The more advanced applications of nanomedicine will pose unique challenges in terms of classification and maintenance of scientific expertise.

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Key Players:

Merck & Co. Inc., Hoffmann-La Roche Ltd., Gilead Sciences Inc., Novartis AG, Amgen Inc., Pfizer Inc., Eli Lilly and Company, Sanofi, Nanobiotix SA, UCB SA and other predominate & niche players.

Competitive Analysis:

At present, the nanomedicine market is at a nascent stage but, a lot of new players are entering the market as it holds huge business opportunities. Especially, big players along with the collaboration with other SMBs for clinical trials of nanoparticles and compounds are coming with new commercial targeted drugs in the market and they are expecting a double-digit growth in the upcoming years. Significant investments in R&D in this market are expected to increase and collaborations, merger & acquisition activities are expected to continue.

Benefits:

The report provides complete details about the usage and adoption rate of nanomedicines in various therapeutic verticals and regions. With that, key stakeholders can know about the major trends, drivers, investments, vertical players initiatives, government initiatives towards the nanomedicine adoption in the upcoming years along with the details of commercial drugs available in the market. Moreover, the report provides details about the major challenges that are going to impact on the market growth. Additionally, the report gives the complete details about the key business opportunities to key stakeholders to expand their business and capture the revenue in the specific verticals to analyze before investing or expanding the business in this market.

Report Analysis@ https://www.trendsmarketresearch.com/report/analysis/IR/nanomedicine-market

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World Pancreatic Cancer Day: increasing awareness and inspiring action – UNSW Newsroom

Thursday, November 21st, 2019

Pancreatic cancer is an insidious disease itis often diagnosedat an advanced stage, with about 90% of patients dying within five years of diagnosis.New projections suggest pancreatic cancer will be the second leading cause of cancer mortality by 2025.

This World Pancreatic Cancer Day, we are celebrating some of the many UNSWresearchers who are dedicated to changing those statistics. Cancers with poor outcomes like pancreatic cancer are a key focus area in UNSW Medicine's cancer theme.

Associate Professor Phillips is the Head of the Pancreatic Cancer Translational Research Group and Deputy Director of the Adult Cancer Program at the Lowy Cancer Research Centre at UNSW Medicine.

This year, A/Prof Phillips was a key driver in establishing the Pancreatic Cancer Research Hub, which aims to double the survival of patients with pancreatic cancer by 2030.

She says World Pancreatic Cancer Day is a powerful advocacy event to increase community and government awareness of pancreatic cancer.

It is also a time to reflect on the progress we have made in understanding this terrible disease and focus on the next steps to overcome current clinical challenges to ensure our research efforts bridge the gap and, as in other cancers, improve the outcomes for our patients with pancreatic cancer.

I know that we are on the brink of overturning the unacceptable statistics. Uniting researchers with the community who, unlike in other cancers, dont often get to be a strong voice advocating for themselves and Government will ensure Australian researchers continue to make positive change for pancreatic cancer patients globally.

A/Prof Phillips group has developed a novel cutting-edge way to keep pieces of human pancreatic tumours alive in the laboratory for two weeks after surgical resection.

Our capacity to grow human tumour tissue in the laboratory provides a valuable new clinical tool to test how a patients tumour responds to different chemotherapies and has the potential to immediately inform patient treatment options. Our unique tumour model is superior to other models because it is human in origin and it contains the complex tumour environment present in patients.

In 2016 A/Prof Phillips had a major breakthrough, successfully developing a novel nanomedicine a tiny drug delivery vehicle consisting of a state-of-the-art nanoparticle that can package gene therapy to inhibit any tumour-promoting gene in pancreatic cancer.

With the generous support from the Brian O'Neill Pancreatic Cancer Fundraising Dinner held last night the team will be able to perform essential preclinical studies to test the therapeutic potential of their nano-gene therapy in combination with a clinically approved drug. They also plan on using their expertise to improve the bioavailability of the clinically approved drugs using a nanomedicine approach.

Professor Minoti Apte was the first in the world to isolate and characterise pancreatic stellate cells, a cell type that is now known to play a major role in the progression of both chronic pancreatitis and pancreatic cancer. Coming up with ways to target these cells to prevent them from doing harm is now a major focus of her teams research.

The group has now shown that interrupting the cross-talk between cancer cells and surrounding cells in the microenvironment by targeting a certain signalling pathway reduces tumour growth and eliminates metastasis in early as well as advanced pre-clinical models of pancreatic cancer.

We have also shown that targeting this pathway reduces the risk of recurrence and progression after surgical resection of pancreatic cancer in a mouse model, and are currently working on possible pathways to take our laboratory findings to the clinic, Professor Apte says.

To me, World Pancreatic Cancer Day is a great opportunity to raise awareness in the community about this deadly cancer, but it is also a day to admire the courage and resilience of patients and their carers. These are the people that spur us researchers on to continue working hard to develop new therapeutic approaches to improve outcomes.

Last year, Professor Apte received the Gastroenterological Society of Australia (GESA) Distinguished Researcher Prize 2018. In 2014 she was awarded the Medal of the Order of Australia (OAM), after being named the NSW Woman of the Year in 2015. She was also the 2016 recipient of the Professor Rob Sutherland AO Make a Difference Award at the NSW Premiers Awards for Outstanding Cancer Research an award that recognises highly successful research that is actively changing cancer treatment and improving patient survival.

Dr Angelica Merlot, who is based at the Childrens Cancer Institute, focuses her research on developing new anti-cancer drugs that target drug resistance and suppress cancer spread.

This year, the cancer researcher has won the 2019 NSW Young Woman of the Year award for her achievements and research into treatments for pancreatic and brain cancer. She also won a 2019 Young Tall Poppy Science Award and the 2019 NSW Early Career Researcher of the Year (Biological Sciences) at the NSW Premiers Prizes for Science & Engineering.

Dr Merlot says today is an important day to raise awareness about one of the world's toughest cancers.

This is crucial as it broadens community knowledge, inspires action and supports further research funding for this cancer. It's also a time to remember those whom we have lost and those currently fighting this disease, she says.

Although we've seen a small improvement in the current survival rate, a lot of progress is still required. Further translational research means that there is a greater likelihood that the survival rates can be increased and the journey and treatment of those affected by the cancer can be improved.

Dr Merlot became focused on cancer research as an undergraduate. Her interest in aggressive cancers, such as pancreatic and brain cancer, was motivated by lack of improvement in survival rates over the past decades, largely due to late diagnosis, a lack of screening programs, low awareness of symptoms and a lack of treatment options.

After moving to UNSW Medicine as a Scientia Fellow in 2018, Dr Merlot focused on understanding the mechanisms by which cancer cells grow and adapt to their environment, why drugs become less effective and the development of nanoparticles to improve drug delivery.

Dr Merlots current projects are investigating part of a human cell called the endoplasmic reticulum (ER). The ER is a type of organelle, or subunit within a cell, that has been shown to help cancers grow, spread and develop drug resistance.

Dr Ying Zhu will lead a team of researchers from UNSW to discover much needed early detection methods for pancreatic cancer patients: the UNSW Medicine researcher today received $100,000 grant from the Avner Pancreatic Cancer Foundation. A/Prof Phillips is a co-investigator on this grant.

As current approaches to this research are time and labour intensive, the team will develop an integrated and small device based on nanotechnology for rapid and sensitive exosome analysis. The team will define a set of biomarkers that can differentiate between cancer and non-cancer subjects from cells and plasma carrying early signs of human pancreatic cancer. This novel technology will also be applicable for doctors monitoring the development and customising the treatment of a patients tumour.

Pancreatic cancer is difficult to diagnose in the early stages. Early tumour cant be observed during routine physical exams as the pancreas is deep inside the body. Most patients are diagnosed when the cancer has become very large or has spread to other organs. A method to detect pancreatic cancer early on is urgently needed, Dr Zhu said.

My project team aims to develop a blood test to detect pancreatic cancer in the early stages. The team will target exosomes, which are nanosized fragments released by cancer cells. Exosomes are important for communicating messages and transporting materials between cells. Exosomes have been identified as more accurate and promising biomarkers, or biological clues for pancreatic cancer diagnosis, Dr Zhu continued.

We are pleased to award funding to this innovative project, said Michelle Stewart, CEO of the Avner Pancreatic Cancer Foundation. We are encouraged by the high calibre of the research and believe that investment into projects like these will help us to increase survival for people diagnosed with pancreatic cancer.

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Nanomedicine Market Segmented by Applications and Geography Trends, Growth and Forecasts 2026 – The Bay State Herald

Thursday, November 21st, 2019

A new market assessment report on the Nanomedicine market provides a comprehensive overview of the Nanomedicine industry for the forecast period 2019 2026. The analytical study is proposed to provide immense clarity on the market size, share and growth rate across different regions. The profound knowledge and extensive examination of the trends from the yesteryear and future aims at offering the stakeholders, product owners, and marketing personnel a competitive edge over others operating in the Agricultural Tires market for the forecast period, 2019 2026.

The study will also feature the key companies operating in the industry, their product/business portfolio, market share, financial status, regional share, segment revenue, SWOT analysis, key strategies including mergers & acquisitions, product developments, joint ventures & partnerships an expansions among others, and their latest news as well. The study will also provide a list of emerging players in the Nanomedicine market.

In this report, theglobal Nanomedicine marketis valued atUSD xx million in 2019and is expected to reachUSD xx millionby the end of2026, growing at aCAGR of xx.x%between 2019 and 2026.

Download FREE Sample Brochure (Customized Sample PDF File delivered as per your specific requirement) @https://www.reportsanddata.com/sample-enquiry-form/1048

The major manufacturers covered in this report:Arrowhead Pharmaceuticals Inc. AMAG Pharmaceuticals, Bio-Gate AG, Celgene Corporation and Johnson & Johnson. Johnson & Johnson

The study is a professional probe into the revenue generated and capacity estimates for the Nanomedicine market for the forecast period 2019 2026 empower the business owners to maintain a competitive edge over their rivals.

The research further examines and provides data on the market by type, application and geography interspersed with illustrations and other graphical representations. The market analysis not only determines the attractiveness of the industry but also the evolving challenges and opportunities and their association with the weaknesses and strengths of prominent market leaders.

Other factors taken into consideration when studying the industry include profitability, manufacturing capability, distribution channels and industry cost structure and major success factors.

The industry experts have left no stone unturned to identify the major factors influencing the development rate of the Nanomedicine industry including various opportunities and gaps. A thorough analysis of the micro markets with regards to the growth trends in each category makes the overall study interesting. When studying the micro markets the researchers also dig deep into their future prospect and contribution to the Nanomedicine industry.

Product Outlook (Revenue, USD Billion, 2018-2026)

Therapeutics

Regenerative Medicine

In-vitro diagnostics

In-vivo diagnostic

Vaccines

Drug Delivery System Outlook (Revenue, USD Billion, 2018-2026)

Nanobots

Nanoghosts

Nanoclusters

Nanobubbles

Exosomes

Injectable Nanoparticle Generator

Dendrimers

Liposomes

Carbon nanotube

Graphene

Others

Application Outlook (Revenue, USD Million, 2015-2026)

Oncology

Infectious diseases

Cardiology

Orthopedics

Others

!!! Limited Time DISCOUNT Available!!! Get Your Copy at Discounted [emailprotected]https://www.reportsanddata.com/discount-enquiry-form/1048

Key Research:

The main sources are industry experts from the global Nanomedicine industry, including management organizations, processing organizations, and analytical services providers that address the value chain of industry organizations. We interviewed all major sources to collect and certify qualitative and quantitative information and to determine future prospects. Through interviews in the industry experts industry, such as CEO, vice president, marketing director, technology and innovation director, founder and key executives of key core companies.

Secondary Research:

Secondary research studies critical information about the industrial value chain, core pool of people, and applications. We also helped market segmentation based on the industrys lowest level of industry, geographical markets and key developments in market and technology-driven core development.

Geographically, this report studies the key regions, focuses on product sales, value, market share and growth opportunity in these regions, covering:

United States

Europe

China

Japan

Southeast Asia

India

Incorporated with Info-graphics, charts, 75 tables and 105 figures, this 243-page research report NanomedicineMarket Size, Type Analysis, Application Analysis, End-Use Industry Analysis, Regional Outlook, Competitive Strategies And Forecasts, 2019 2026 is based on a complete research of the entire Global market and covering all its sub-segments through comprehensively thorough classifications. Insightful analysis and assessment are created from superior primary and secondary information sources with data and information derived from industry specialists across the value chain. The report provides historical market data for 2014-2018, base year estimates for 2018, and forecasts from 2019 to 2026.

Table of Contents:

Report Overview:It includes the objectives and scope of the study and gives highlights of key market segments and players covered. It also includes years considered for the research study.

Executive Summary:It covers industry trends with high focus on market use cases and top market trends, market size by regions, and global market size. It also covers market share and growth rate by regions.

Key Players:Here, the report concentrates on mergers and acquisitions, expansions, analysis of key players, establishment date of companies, and areas served, manufacturing base, and revenue of key players.

Breakdown by Product and Application:This section provides details about market size by product and application.

Regional Analysis:All of the regions and countries analyzed in the report are studied on the basis of market size by product and application, key players, and market forecast.

Profiles of International Players:Here, players are evaluated on the basis of their gross margin, price, sales, revenue, business, products, and other company details.

Market Dynamics:It includes supply chain analysis, analysis of regional marketing, challenges, opportunities, and drivers analyzed in the report.

Appendix:It includes details about research and methodology approach, research methodology, data sources, authors of the study, and a disclaimer.

For further information on this analysis, please visit @https://www.reportsanddata.com/report-detail/nanomedicine-market

Why Choose Reports and Data?

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We are grateful to you for reading our report. If you wish to find more details of the report or want a customization, contact us. You can get a detailed information of the entire research here. If you have any special requirements, please let us know and we will offer you the report as you want.

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Global Next-Generation Sequencing (NGS) Market Report 2019 – World Market Projected to Surpass $25 Billion by 2026, Rising at a CAGR of 20.6% -…

Thursday, November 21st, 2019

DUBLIN--(BUSINESS WIRE)--The "Global Next-Generation Sequencing (NGS) Market Analysis 2019" report has been added to ResearchAndMarkets.com's offering.

The Global Next-Generation Sequencing (NGS) market is expected to reach $25.09 billion by 2026 growing at a CAGR of 20.6% from 2018 to 2026.

Low cost, high accuracy & speed, and exact outcomes even from low sample input are the fundamental advantages it offers over Sanger's sequencing technique. It is utilized to execute different applications for example, biomarker discovery, oncology studies, personalized medicine, agricultural & animal research, and others. It has streamlined nucleotide analysis and has generally replaced conventional tools of genomics, particularly microarray efficiently. Consequently, these aforementioned factors help in expanding the market share.

Factors such as rise in technological advancements and increase in partnerships & collaborations are driving the market growth. Though, lack of skilled professionals, and ethical & legal limitations are projected to inhibit the growth of the market. Moreover, cloud computing as a potential data management service and lucrative opportunities in emerging markets may provide ample opportunities for the market growth.

By end user, academic institutes & research centers segment acquired significant growth in the market owing to the increasing number of collaborations between the market players and academic & research institutions and on the account of wide usage of these methodologies in research and Ph.D. projects, on-site bioinformatics courses, and workshops across regions, and the development of cost-efficient products and services for researchers is leading to the market growth.

The key vendors mentioned are 10x Genomics, Agilent Technologies Inc, Beckman Coulter (A Subsidiary of Danaher), Becton, Dickinson and Company, BGI, Eurofins Scientific, F. Hoffmann-La Roche AG, Genewiz, Illumina Inc, Macrogen Inc, Oxford Nanopore Technologies Ltd, Pacific Biosciences of California Inc, Perkinelmer Inc, Qiagen N.V. and Thermo Fisher Scientific Inc.

Key Questions Answered in this Report

Key Topics Covered

1 Market Synopsis

2 Research Outline

3 Market Dynamics

3.1 Drivers

3.2 Restraints

4 Market Environment

4.1 Bargaining power of suppliers

4.2 Bargaining power of buyers

4.3 Threat of substitutes

4.4 Threat of new entrants

4.5 Competitive rivalry

5 Global Next-Generation Sequencing (NGS) Market, By Disease

5.1 Introduction

5.2 Rare Disease Diagnostics

5.3 Cardiovascular

5.4 Other Diseases

6 Global Next-Generation Sequencing (NGS) Market, By Service

6.1 Introduction

6.2 Sequencing Services

6.3 Animal & Plant Sequencing

6.4 Gene Regulation Services

6.5 Human Genome Sequencing Services

6.6 Microbial Genome - based Sequencing Services

6.7 Single Cell Sequencing Services

7 Global Next-Generation Sequencing (NGS) Market, By Type of Sequencing

7.1 Introduction

7.2 CHIP Sequencing

7.3 De Novo Sequencing

7.4 Illumina Sequencing

7.5 Methyl Sequencing

7.6 Pre-Sequencing

7.7 RNA Sequencing

7.8 Targeted Sequencing & Resequencing

7.9 Whole Exome Sequencing

7.10 Whole Genome Sequencing

8 Global Next-Generation Sequencing (NGS) Market, By Informatics

8.1 Introduction

8.2 Primary and Secondary Data Analysis Tools

8.3 NGS Informatics Services

8.4 Computing

8.5 Storage

8.6 LIMS (Laboratory Information Management System)

8.7 Biological Interpretation and Reporting Tools

9 Global Next-Generation Sequencing (NGS) Market, By Product

9.1 Introduction

9.2 Reagents & Consumables

9.3 Instruments

9.4 Platforms

9.5 Software

9.6 Services

10 Global Next-Generation Sequencing (NGS) Market, By Technology

10.1 Introduction

10.2 454 Technology

10.3 DNA Nano Ball Sequencing

10.4 Ion Semiconductor Sequencing

10.5 Ion Torrent Sequencing

10.6 Ion Semiconductor Sequencing

10.7 Massively Parallel Signature Sequencing (MPSS)

10.8 Nanopore Sequencing

10.9 Pyrosequencing

10.10 Reversible Terminator Sequencing

10.11 Sequencing by Ligation (SBL)

10.12 Sequencing By Synthesis

10.13 Sequencing by Synthesis (SBS)

10.14 Single Molecule Real Time (SMRT) Sequencing

10.15 Single-Molecule Real-Time Sequencing

10.16 Supported Oligonucleotide Ligation and Detection (SOLiD)

11 Global Next-Generation Sequencing (NGS) Market, By Application

11.1 Introduction

11.2 Agrigenomics & Forensics

11.3 Biomarker Discovery and Cancer

11.4 Cardiovascular

11.5 Clinical Investigation

11.6 Consumer Genomics

11.7 Drug Discovery

11.8 Emerging Application

11.9 Forensics

11.20 Genetic Analysis

11.21 Hereditary Disease Detection

11.22 HLA Typing/Immune System Monitoring

11.23 Human Leukocyte Antigen (HLA) Testing

11.24 Infectious Disease Diagnostics

11.25 Life Science

11.26 Metagenomics, Epidemiology & Drug Development

11.27 Oncology

11.28 Pharmaceuticals

11.29 Precision Medicine

11.30 Reproductive Health

12 Global Next-Generation Sequencing (NGS) Market, By End User

12.1 Introduction

12.2 Academic Institutes & Research Centers

12.3 Agriculture and Animal Research

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Global Next-Generation Sequencing (NGS) Market Report 2019 - World Market Projected to Surpass $25 Billion by 2026, Rising at a CAGR of 20.6% -...

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Bankrupt biopharmas are rare. 2019 has some worried that’s changing. – BioPharma Dive

Thursday, November 21st, 2019

Editors note: This is part of a series about bankruptcy in the biopharma industry. Click here to see a running list of 2019 biopharma bankruptcies, and click here to see 31 biopharmas at high risk of bankruptcy for 2020.

Six years ago, Bind Therapeutics was flying high, with little idea how hard it would soon crash.

Headed into a public stock offering in 2013, the biotech, founded by top MIT and Harvard researchers, generated buzz with its lofty scientific ambitions. Company executives believed its nanomedicine platform, while only through Phase 1 tests, represented the next advance in cancer therapies.

Those dreams came undone within three years. As its experimental therapies struggled in clinical testing, Bind was punished by the market, and debt repayments forced the company into bankruptcy in 2016.

Bind may be a cautionary story in todays life sciences ecosystem, one that features biotechs going public at earlier stages and with heightened ambitions.

While bankruptcy is a rare outcome for biopharmas, 2019 has bucked that trend with an uptick in Chapter 11 filings. Eleven companies have declared bankruptcy so far this year, compared to an average of four per year during the past decade, according to a review of data tracked by the firm BankruptcyData.

That increase may forewarn of more companies falling to zero, industry experts said in interviews with BioPharma Dive, especially at a time of rising legal and political headwinds for the sector. After a decade of booming growth, the ballooning ranks of newly public biotechs may struggle to withstand market pressures.

I think theres a turning point now, said Andrew Hirsch, the former CEO of Bind, in an interview. I think its not sustainable.

Hirsch highlighted the rising prominence of early-stage platform companies, like Bind, going public in greater numbers and at larger valuations. That can bring steeper downside, he warned.

Things arent always going to work the first time, thats just the rule in this industry. A lot of times, companies are valued for perfection, said Hirsch, now Agios Pharmaceuticals chief financial officer.

If they are lucky and it works, thats great. But if you have a setback because youre doing novel things, the public markets can be a cruel place to be.

Biotech vastly outperformed the broader stock market over the past decade, and a steady inflow of capital supported more companies going public at rich valuations.

But those tides have turned. A leading biotech index has fallen more than 15% since peaking in the summer of last year, while the S&P 500 has ticked up nearly 13% in the same timeframe. The capital required for funding biopharmas ambitions is leaving too, with one Wall Street firm calculating $8.7 billion in net capital outflows this year rivaling a stretch in late 2015 and early 2016.

After years of outperformance, biotech has lagged the market for the past year

Price per share of a leading biotech index (XBI) and the S&P 500 (SPX) from January 2018 to October 2019 (indexed)

The base value of the index is trading value on Jan. 2, 2018.

Nami Sumida/BioPharma Dive

Investor anxiety is rising at a time when more companies are fighting for funding than in past decades. Evercore ISI analyst Josh Schimmer said this year hes noticed a marked shift in investor attitudes.

When they stumble, the markets are more unforgiving than ever, Schimmer said in an interview. They arent given second chances the way they used to be given. That may be a factor that does lead to a higher rate of bankruptcies.

And small biotechs arent the only ones facing elevated bankruptcy risk. The weight of thousands of lawsuits related to opioid marketing has already taken down Purdue Pharma and Insys Therapeutics. Several others, like Teva Pharmaceutical, Mallinckrodt and Amneal, are at risk of joining them.

The legal uncertainty has made these companies perceived as uninvestable, SVB Leerink analyst Ami Fadia said in an interview. Additionally, many of these pharmas are highly leveraged and face issues in generating cash going forward, she added.

Its pretty obvious that some of these companies are at high risk of bankruptcy, said Fadia, who covers several of these drugmakers including Mallinckrodt and Amneal.

To be sure, the effect of opioid liabilities is constrained to a comparatively small set of companies. But heading into an election year with drug pricing as a top issue, worries about capital fleeing the industry and a legal crackdown on opioid makers could be exacerbated by political threats as well.

Industry lobbyists have blasted HR3, the leading Democratic drug pricing proposal, saying it would trigger a nuclear winter by eroding the upside of biopharmas high-risk, high-reward investment premise.

If HR3 becomes law, it is lights out for a lot of very small biotech companies that are pre-revenue and depend on attracting capital, PhRMA CEO Stephen Ubl said at a recent media briefing.

Industry-specific concerns, of course, come against the backdrop of fears of a broader economic slowdown. Financial analysts have flagged recession signals in the U.S., which, if materialized, would further squeeze the industry.

It may be coming, in which capital itself is scarcer for companies, said Bob Eisenbach, a lawyer at Cooley specializing in bankruptcies. And when that happens, it puts pressure even on good companies.

Biopharmas are structured to avoid bankruptcies. Pre-revenue companies typically carry little debt and have little to restructure through a bankruptcy court if their pipeline fizzles.

Privately held biotechs that suffer clinical failures can also avoid bankruptcy by having their financial backers buy them out, saving face for those venture capitalists.

It just disappears into this great maw of the biotech universe, said Kevin Kinsella, a venture capitalist and founder of Avalon Ventures, referring to distressed biotechs in an interview.

Having launched more than 100 biopharmas, including prominent names like Vertex, Neurocrine and Onyx, Kinsella said hes been lucky enough to avoid getting entangled in any bankruptcies.

Someone absolutely failing, shutting the doors and turning off the lights, you dont really see that a lot in our industry, he said.

Drug companies, both young and old, derive value from ideas and hope more than tangible assets or resources. Just last year, early-stage platform companies like Moderna Therapeutics and Rubius Therapeutics went public with multi-billion dollar valuations despite lacking profits and significant clinical data.

But investor attitudes appear to have shifted. Rubius stock, for instance, has dropped more than 70% since its IPO. While up this month, shares in Moderna are 30% off their 52-week high in May.

Speaking generally about platform companies, Binds former CEO said market sentiment has turned.

Investors have lost their appetite for companies going public with preclinical data, Hirsch said.

Youre probably going to see more of these situations going forward, where a company is preclinical, went public and is left on their own and has to raise additional money from the public markets and they flounder.

Yet even floundering biotechs can persist for years, even decades. Long-standing industry veterans like Xoma, Novavax and Geron have survived in as-yet fruitless searches for their first drugs, suffering clinical failures along the way. Despite accumulated deficits exceeding $1 billion, these companies can find the necessary capital to keep chugging along.

Theres always someone else whos willing to bet the next discovery is around the corner, or the next asset, or if we get this clinical trial enrolled and finished, all will be good, Kinsella said. Theres always hope.

Besides selling hope, biopharmas, like all businesses, have practical options to stave off bankruptcy. Restructuring and raising cash are the main focuses, turnaround experts said.

Corporate restructurings typically shrink the business, either by laying off employees, selling assets or killing off R&D projects. Raising capital can include licensing rights to experimental therapies, taking on debt or tapping the public markets for secondary stock offerings.

If those options are exhausted, M&A can be another way out for shareholders. Firms like Deerfield Management, Hercules Capital and Highbridge Capital Management often aid distressed biotechs in such endeavours.

Deerfield, for instance, reached deals to finance R&D costs for Dynavax and helped fund Melinta Therapeutics acquisition of an infectious disease business.

A last resort can be merging with another struggling biotech, or becoming the shell in a reverse merger for another company seeking an easy path to a public listing.

Both happened in just the past few weeks. Foamix Pharmaceuticals and Menlo Therapeutics merged into one dermatology company, while NewLink Genetics was the shell through which Lumos Pharma joined public markets.

These strategies act as moats that insulate a high-risk industry from bankruptcy. In recent years, they have worked tremendously well. Among the 333 biopharmas that have gone public since 2012, just 3% filed for bankruptcy while 6% became reverse merger shells and 10% exited via M&A, according to data tracked by Evercore ISI.

But with 2019 looking shaky for biopharma, some have begun to wonder how markets will respond.

The last few years have featured record levels of capital raising, according to the investment bank Jefferies, which tallied 100 initial public offerings and 270 follow-on raises in 2018 and 2019 that drummed up tens of billions in cash.

At the same time, the number of public small and mid-sized biotechs has doubled in the past decade. There arent just more of these smaller firms; they also are worth more and consume more capital on average. From 2010 to present, these companies have seen their typical market values double, R&D budgets triple and cash burn rates quadruple, Jefferies found.

The annual burn rate for these biotechs, which includes market values from $200 million to $5 billion, has increased from $20 million to $80 million. Jefferies analyst Michael Yee credited that to free-flowing capital, more platform companies and an arms race in oncology.

Biotechs impressive market performance has made that possible. A leading biotech index, for instance, outperformed the S&P 500 by 30% since the market bottomed out in March 2009.

But of late, biotech has struggled, creating a tougher environment to raise cash.

The question is whether this is sustainable if market and macro conditions get tougher and political uncertainty gets more obvious, forcing companies to tighten their belts to ride out 2020, Yee wrote.

2019 has brought an uptick in industry bankruptcy filings

Credit: Data from Bankruptcy Data

Conditions have clearly worsened by some metrics, such as the amount of money invested in healthcare- or biotech-dedicated funds. Data tracked by a Piper Jaffray found $8.7 billion in investment has left such funds in 2019. Ten of the past 12 weeks have registered net capital outflows, a streak a Piper Jaffray analyst called seemingly the new normal.

Billions of dollars flowed out of biotech in 2015 and 2016, too, at a time when many biotech shares were falling and the prospect of a Hillary Clinton presidency had raised investor fears on drug pricing.

Biotech weathered that storm, with few companies entering bankruptcy, and has grown since. Going forward, a critical question will be gauging whether the sector is on a new trajectory or if it will emerge from this period relatively unscathed.

Getting investor attention is harder than ever to begin with, said Evercores Schimmer. For a company that has faltered, even if they are doing the right thing, its a struggle.

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Bankrupt biopharmas are rare. 2019 has some worried that's changing. - BioPharma Dive

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NTT Research and Technical University of Munich (TUM) Enter Joint Research Agreement to Collaborate on Technologies to Affect the Future of Patient…

Wednesday, November 13th, 2019

PALO ALTO, Calif.--(BUSINESS WIRE)--NTT Research, Inc., a division of NTT (TYO:9432), today announced that its Medical and Health Informatics (MEI) Lab has entered a joint research agreement with the Technical University of Munich (TUM) to work on three-dimensionally transformable and implantable electrodes. Dr. Hitonobu Tomoike (M.D., Ph.D.), a renowned scientist and medical researcher, directs the MEI Lab, which will be collaborating with Dr. Bernhard Wolfrum, Professor of Neuroelectronics at TUM in the Department of Electrical and Computer Engineering and the Munich School of BioEngineering (MSB). The scope of work for this multi-year project includes screening and optimizing functional materials, assembling 3D structures, and evaluating their biocompatibility.

Charged with discovering technologies that can revolutionize patient care, the NTT Research MEI Lab is focusing on the transformation and miniaturization of medical device components. This joint research will address the tendency of conventional electronics to work against and at a relative distance from, rather than with and alongside their targeted organ or tissue. The flexible micro- or nano-scale electrodes envisioned as an outcome of this project are expected to minimize the negative impact that rigid and planar electrode materials have on soft and curvilinear biological samples.

In order to acquire in vivo biological signals stably, with a high accuracy for a long period of time, a flexible electrode with high biocompatibility is required, said Dr. Tomoike. To achieve this, we will use nano and micro-scale conductive polymer thin films that are friendly to living bodies and consider the use of in vivo implant electrodes, as well as the control of structural changes of the functional electrodes in the body.

The two principal researchers bring considerable expertise to this project. Dr. Tomoike, former Director of the Sakakibara Heart Institute, Director Emeritus at the National Cerebral and Cardiovascular Center in Japan, and former Professor of Cardiology at Yamagata University, is known for his work in precision medicine involving bio-sensors and analytics. Dr. Wolfrums research focuses on neuro- and bioelectronics. He has developed electrochemical sensor arrays and interfaces to cellular networks and employed microfabrication techniques, advanced printing technologies, and microfluidic cell culture methods with the goal of establishing neuroelectronic hybrids and systems for on-chip neuroscience and bioelectronic medicine.

The Technical University of Munich has strengths in neuron growth control and electrophysiological measurement and has recently accumulated know-how and knowledge of printing technology for bioelectronics, said Dr. Tomoike, who is also a Fellow of the American College of Cardiology and of the American Heart Association. We are aiming for breakthroughs in fundamental material science and unprecedented technologies for diagnostic, therapeutic and surgical functions.

Along with pursuing ambitious research targets, this agreement also advances NTT Researchs goal of engaging with partners around the world. As part of this project, NTT Research MEI Lab will send two of its researchers to Munich. The MEI Lab also plans to open an office in Germany. The research will officially launch in Q1 2020; the first phase of the project may take as long as three years.

We are very pleased to have entered this long-term joint research agreement with the MEI Lab of NTT Research and believe our combined strengths will lead to promising advances in a critically important field of bioengineering, said Dr. Wolfrum, who conducted postdoctoral research in nanoscience at Delft University, has led a research group at the Peter Grnberg Institute in Jlich, lectured at Aachen University, and conducted research as a visiting associate professor at Tohoku University in Sendai.

Throughout this interdisciplinary research project, the two organizations are expected to leverage their respective strengths. The Technical University of Munich, which is a member of the TU9 alliance of nine leading German institutes of technology, will be involved through its Neuroelectronics Group (NEL), Munich School of BioEngineering, in the investigation, characterization, and micro/nanofabrication of materials. For its part, the MEI Lab will design experiments and research targets and conduct data analysis based on IoT and AI technologies. Each party will assume roles in evaluating the biocompatibility of fabricated devices.

One notable aspect of this project, according to Dr. Tomoike, is its focus on the physics of soft nanomaterials, the self-assembly of which allows not only for precise control of 3D structures but also reversible transformation of electrodes that interface and function with cells and tissues. Possible applications involve sensing and stimulation electrodes for the brain and heart, brain-machine interfaces, multi-array electrodes for neuronal analysis, and new approaches to vasodilation.

About NTT Research

NTT Research opened its Palo Alto offices in July 2019 as a new Silicon Valley startup to conduct basic research and advance technologies that promote positive change for humankind. Currently, three labs are housed at NTT Research: the Physics and Information Science (PHI) Lab, the Cryptography and Information Security (CIS) Lab, and the Medical and Health Informatics (MEI) Lab. The organization aims to upgrade reality in three areas: 1) quantum information, neuro-science and photonics; 2) cryptographic and information security; and 3) medical and health informatics. NTT Research is part of NTT, a global technology and business solutions provider with an annual R&D budget of $3.6 billion.

NTT and the NTT logo are registered trademarks or trademarks of NIPPON TELEGRAPH AND TELEPHONE CORPORATION and/or its affiliates. All other referenced product names are trademarks of their respective owners. 2019 NIPPON TELEGRAPH AND TELEPHONE CORPORATION

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NTT Research and Technical University of Munich (TUM) Enter Joint Research Agreement to Collaborate on Technologies to Affect the Future of Patient...

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Nanoform Wins Award for Drug Development and Delivery – AZoNano

Wednesday, November 13th, 2019

Image Credit: phive/Shutterstock.com

Nanoform, a Finnish nanotechnology and drug particle engineering company, has won the prestigious Excellence in Pharma Award for Formulation at the 16th CPhI Pharma Awards which took place in Germany this November.

The prize sees world-renowned innovative companies competing against one another. This year Nanoforms ingenious medicine enabling nanotechnology, in the form of its CESS nanonization technology, won the highly contested award.

Who are Nanoform?

International pharmaceutical and biotechnology companies are well aware of the work that Nanoform dedicates itself to. Nanoform partners with businesses with the aim to boost their molecules formulation performance as well as to reduce clinical attrition. Nanoform is committed to working with international companies to provide them with cutting-edge, innovative solutions for the development and delivery of drugs.

The technology that won it the esteemed prize at the CPhI Pharma Awards was its multi-patented nanonization process which was designed with the capability of substantially improving dissolution rates and bioavailability, having the impact of doubling the number of drug compounds reaching clinical trials. In addition, the innovation has been shown to add value to the drug delivery spaces of pulmonary, transdermal, ocular and blood-brain barrier.

For this innovative new process, Nanoform surpassed the efforts of other respected companies such as Cambrex, Lonza Capsugel, and Glatt Pharmaceutical Services, who had also entered in the same category.

The Innovation

The new CESS, short for Controlled Expansion of Supercritical Solutions, nanonization technology has multiple patents for its unique design. It creates designed-for-purpose, nano-sized active pharmaceutical ingredient (API) particles, using a process that can control the particles shape, increasing uniformity. The system also has the ability to produce nanoparticles as small as 10 nm.

The method works by controlling the solubility of an API in supercritical carbon dioxide (scCO2) through a bottom-up method of recrystallization. Previous alternatives had been limited, and the CESS system surpasses those due to its utilization of controlled mass transfer, pressure reduction and flow. Another benefit of the system is that it is green, its process is free from using excipients and organic solvents.

Through Nanoforms innovation, novel opportunities are opening up to the field of drug research and development.

The Significance of the CESS System

Nanomaterials have unique properties that differ from their bulk material counterparts. These different properties have made them of special interest to a number of scientific fields, which has boosted exploration into nanoparticles over recent years. It has been found that these unique properties have potential applications in the areas of nanomedicine, therapeutics, medical devices and more. They have been identified as vectors for medical imaging, biological diagnostics and therapeutics.

What has been achieved by Nanoform is that another avenue of potential use has been opened up for nanoparticles. Nanoform has developed a reliable system that allows the benefits of nanoparticles to be harnessed in drug research and development. The unique properties of nanoparticles will be able to be put to use in developing new therapeutic treatments, which could induce a significant shift in the pharmaceutical sector.

It is generally accepted that advancements in the use of nanoparticles in this area would significantly influence the advancement of human therapeutics. Now pharmaceutical companies have access to a system that allows them to tailor-make nanoparticles, the innovation of new therapies that previously would not have been possible could be on the horizon.

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Nanoform Wins Award for Drug Development and Delivery - AZoNano

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Micromotors move single cells using magnets and ultrasound – CMU The Tartan Online

Wednesday, November 13th, 2019

A new type of micromotor has been developed. Directed by magnets and powered by ultrasound, these micromotors are capable of traveling across microscopic particles and cells in very crowded areas without causing any damage.

These microswimmers provide a new way to manipulate single particles with precise control and in three dimensions, without having to do special sample preparation, labeling, surface modification, said Joseph Wang, a professor of nanoengineering at University of California San Diego (USCD), in a UCSD press release.

Wang, Thomas Mallouk, a professor of chemistry at the University of Pennsylvania, and Wei Wang, professor of materials science and engineering at Harbin Institute of Technology, are credited as senior authors of a paper detailing the development of these micromotors. The study was published on Oct. 25 in Science Advances.

Researchers tested the technology by moving HeLa cells the oldest and most commonly used cell line for scientific research and silica particles in aqueous media with micromotors. They accomplished this task without damaging nearby particles and cells. In one test, the researchers were able to create letters by pushing particles with the micromotors. In another, they exerted control over the micromotors, making them climb up microscopic blocks and stairs. This test demonstrated that they were capable of navigating over three-dimensional objects.

The micromotors are essentially gold-coated hollow polymer structures that are shaped like a half capsule. Within the body of the micromotor is a tiny magnetic nickel nanoparticle, allowing them to be steered with magnets. The inside surface is treated so it can repel water, so when the micromotor is submerged in water, an air bubble is trapped inside the device. This trapped bubble is integral to the functioning of the micromotor, as it allows the micromotor to respond to ultrasound. Upon receiving ultrasound waves, the trapped bubble begins to oscillate, forming forces that give it an initial push to movement. By applying an external magnetic field, it can move continuously, while altering the direction of the field allows researchers to control the speed and trajectory of the micromotors.

We have a lot of control over the motion, unlike a chemically fueled micromotor that relies on random motion to reach its target, said Fernando Soto, a nanoengineering Ph.D. student studying at UC San Diego. Also, ultrasound and magnets are biocompatible, making this micromotor system attractive for use in biological applications.

The authors plan on making improvements to the micromotors in the coming years. For example, they want to make them more biocompatible using biodegradable polymers and a magnetic material that is less toxic, such as iron oxide. Thanks to this technology, the researchers have opened new possibilities for nanomedicine, tissue engineering, targeted drug delivery, regenerative medicine, and other applications in the field of biochemistry.

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Micromotors move single cells using magnets and ultrasound - CMU The Tartan Online

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Healthcare Nanotechnology Market Needs and Demand Analysis 2019 to 2025 – The Chicago Sentinel

Wednesday, November 13th, 2019

The Healthcare Nanotechnology Market report delivers a comprehensive overview of the crucial elements of the market and elements such as drivers, current trends of the past and present times, supervisory scenario & technological growth. The report provides useful insights into a wide range of business aspects such as pillars, features, sales strategies, planning models, in order to be enable readers to gauge market scope more proficiently.

Healthcare Nanotechnology Report is based on exploratory techniques like qualitative and quantitative analysis to uncover and present data on the target market. Efficient sales strategies have been mentioned that would business and multiply customers in record time.

The major manufacturers covered in this report:

Amgen

Teva Pharmaceuticals

Abbott

UCB

Roche

Celgene

Sanofi

Merck & Co

Biogen

Stryker

Gilead Sciences

Pfizer

3M Company

Johnson & Johnson

Smith & Nephew

Leadiant Biosciences

Kyowa Hakko Kirin

Shire

Ipsen

Endo International

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Healthcare Nanotechnology Market Product Type:

Nanomedicine

Nano Medical Devices

Nano Diagnosis

Other

Healthcare Nanotechnology Market Applications:

Anticancer

CNS Product

Anti-infective

Other

Healthcare Nanotechnology Market Report has been studied and presents an actionable idea to key contributors working in it. The report integrates several drivers as well as factors that impede the growth of this market during the forecast to 2019-2025. An extensive qualitative analysis of factors responsible for driving the market growth and future opportunities has been provided in the market overview section.

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This report covers regional analysis including several regions such as North America, Europe, Asia Pacific, Middle East & Africa and Latin America. It focuses on the leading and the progressing countries from every region in detail. South East Asia, Japan, China, and India are also predictable to witness vigorous growth in their respective markets for Global Healthcare Nanotechnology Market in the near future, states the research report.

Important Features that are under Offering and Key Highlights of the Reports:

Detailed overview of Healthcare Nanotechnology Market Changing market dynamics of the industry In-depth market segmentation by Type, Application etc. Historical, current and projected market size in terms of volume and value Recent industry trends and developments Competitive landscape of Healthcare Nanotechnology Market Strategies of key players and product offerings Potential and niche segments/regions exhibiting promising growth

Browse Full Report at:

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A thorough study of the competitive landscape of the Global Healthcare Nanotechnology Market has been given, presenting insights into the company profiles, financial status, recent developments, mergers and acquisitions, and the SWOT analysis. This research report will give a clear idea to readers about the overall market scenario to further decide on this market project.

We also offer customization on reports based on specific client requirement:

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Irfan Tamboli (Head of Sales) Market Insights ReportsPhone: + 1704 266 3234 | +91-750-707-8687sales@marketinsightsreports.com | irfan@marketinsightsreports.com

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Healthcare Nanotechnology Market Needs and Demand Analysis 2019 to 2025 - The Chicago Sentinel

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Triple Negative Breast Cancer Treatment Market Rapid Industrialization To Boost Growth By 2018 to 2026 – Zebvo

Wednesday, November 13th, 2019

Ongoing advancements in cancer research continue to lead to the introduction of newer and better treatment options including drug therapies. The provision of newer drugs and treatments is expected to improve the diagnostic and treatment rate for triple-negative breast cancer. Some of the recent clinical efforts are being targeted at the molecular level characterization of triple-negative breast cancer across emerging therapeutic targets such as epigenetic proteins, PARP1, androgen receptors, receptor and non-receptor tyrosine kinases, and immune checkpoints. These initiatives are anticipated to boost revenue growth of the triple-negative breast cancer treatment market. In a new research study, Persistence Market Research estimates the globaltriple-negative breast cancer treatment marketrevenue to cross US$ 720 Mn by 2026 from an estimated valuation of just under US$ 505 Mn in 2018. This is indicative of a CAGR of 4.7% during the period 2018 to 2026.

Development of generics is another key opportunity area in the triple-negative breast cancer treatment market. With the rapidly expanding number of cancer cases across the world, there is a need for effective cancer management, including the provision of better and more efficient drugs. Developing economies are faced with challenges on several fronts including paucity of funds and lack of proper treatment options, calling for more innovative approaches to affordable healthcare. The availability of biosimilars and affordable generic anti-cancer drugs in developing regions is expected to significantly reduce the burden of cancer care. A projected cost reduction to the tune of more than 30% 40% and extended use of generic drugs is expected to reduce overall cancer treatment costs, thereby increasing the treatment rate for triple-negative breast cancer. This is further anticipated to create lucrative growth opportunities in the global triple-negative breast cancer treatment market.

Advances in Cancer Treatment and Introduction of Innovative Cancer Treatment Drugs to Boost Revenue Growth of the Triple-Negative Breast Cancer Treatment Market

Breast cancer is one of the most common types of cancer in women, and over the years, pharmaceutical and life sciences companies have been conducting advanced research and development activities to devise newer treatment options and drugs to treat breast cancer. Several new drug formulations are currently in the pipeline in different stages of clinical development and this is expected to bode well for the triple-negative breast cancer treatment market. Innovation in oncology therapeutics has shifted focus towards an outcome based approach to cancer care, with an increasing emphasis on combination drugs and newer therapeutic modalities. This is further likely to put the global triple-negative breast cancer treatment market on a positive growth trajectory in the coming years.

Combination Therapy and Advancements in Nano Medicine Research Trending the Triple-Negative Breast Cancer Treatment Market

One of the biggest trends being observed in the global market for triple-negative breast cancer treatment is the shift towards combination therapy. Companies in the global triple-negative breast cancer treatment market are conducting clinical trials for combination therapies by collaborating with other players in the market. Combination therapies are the latest innovation in the field of oncology and the combination of therapeutic drugs with chemotherapy is said to be an effective protocol for the treatment of triple-negative breast cancer.

Another huge trend in the triple-negative breast cancer treatment market is the emergence of nanotechnology as an efficient tool in the clinical management of critical diseases such as triple-negative breast cancer. It has been observed that the combination of gold nanoparticles and folic acid results in higher cell entry rate in both in-vitro and in-vivo models, indicative of the fact that folate receptors are effective targeted therapies for the treatment of triple-negative breast cancer. Nanoparticles facilitate systematic and efficient delivery of drugs and agents to the site of the tumor. Advanced R&D in nanotechnology and nano medicine is one of the top trends likely to impact the global triple-negative breast cancer treatment market in the years to come.

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Triple Negative Breast Cancer Treatment Market Rapid Industrialization To Boost Growth By 2018 to 2026 - Zebvo

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