Polytechnic University of Catalonia

DUBLIN--( BUSINESS WIRE )--The "Surgical Devices Pipeline Report including Stages of Development, Segments, Region and Countries, Regulatory Path and Key Companies, 2022 Update" report has been added to ResearchAndMarkets.com's offering. This report provides comprehensive information about the Surgical Devices pipeline products with comparative analysis of the products at various stages of development and information about the clinical trials which are in progress. Report Scope Extensive coverage of the Surgical Devices under development The report reviews details of major pipeline products which includes, product description, licensing and collaboration details and other developmental activities The report reviews the major players involved in the development of Surgical Devices and list all their pipeline projects The coverage of pipeline products based on various stages of development ranging from Early Development to Approved/Issued stage The report provides key clinical trial data of ongoing trials specific to pipeline products Recent developments in the segment/industry The report enables you to: Formulate significant competitor information, analysis, and insights to improve R&D strategies Identify emerging players with potentially strong product portfolio and create effective counter strategies to gain competitive advantage Identify and understand important and diverse types of Surgical Devices under development Develop market-entry and market expansion strategies Plan mergers and acquisitions effectively by identifying major players with the most promising pipeline In-depth analysis of the product's current stage of development, territory and estimated launch date Key Topics Covered 1 Table of Contents 1.1 List of Tables 1.2 List of Figures 2 Introduction 2.1 Surgical Devices Overview 3 Products under Development 3.1 Surgical Devices - Pipeline Products by Stage of Development 3.2 Surgical Devices - Pipeline Products by Segment 3.3 Surgical Devices - Pipeline Products by Territory 3.4 Surgical Devices - Pipeline Products by Regulatory Path 3.5 Surgical Devices - Pipeline Products by Estimated Approval Date 3.6 Surgical Devices - Ongoing Clinical Trials 4 Surgical Devices - Pipeline Products under Development by Companies 4.1 Surgical Devices Companies - Pipeline Products by Stage of Development 4.2 Surgical Devices - Pipeline Products by Stage of Development 5 Surgical Devices Companies and Product Overview 6 Surgical Devices - Recent Developments 7 Appendix 7.1 Methodology List of Tables Surgical Devices - Pipeline Products by Stage of Development Surgical Devices - Pipeline Products by Segment Surgical Devices - Pipeline Products by Territory Surgical Devices - Pipeline Products by Regulatory Path Surgical Devices - Pipeline Products by Estimated Approval Date Surgical Devices - Ongoing Clinical Trials Surgical Devices Companies - Pipeline Products by Stage of Development Surgical Devices - Pipeline Products by Stage of Development Glossary List of Figures Surgical Devices - Pipeline Products by Stage of Development Surgical Devices - Pipeline Products by Segment Surgical Devices - Pipeline Products by Territory Surgical Devices - Pipeline Products by Regulatory Path Surgical Devices - Pipeline Products by Estimated Approval Date Surgical Devices - Ongoing Clinical Trials Companies Mentioned 6S Medical LLC Abbott Operations Uruguay Srl Acoustic MedSystems Inc Aesculap Inc Anastom Surgical Anchora Medical Ltd Apercure Surgical Ltd Apollo Endosurgery Inc Applied Medical Resources Corporation Apyx Medical Corp Archon Medical Technologies LLC Augusta University Baxter International Inc BioTex Inc BriteSeed BTG International Inc Carnegie Mellon University Centre Hospitalier Universitaire de Nice Charite University Hospital of Berlin Chengdu Yurui Innovation Technology Co Ltd Colospan Ltd Control Medical Technology LLC Core Essence Orthopaedics, LLC Corporis Medical Covidien Ltd CR Bard Inc Creative Balloons GmbH Cryofocus Medtech Shanghai Co Ltd CT Resources Inc Cutera Inc Cypris Medical, Inc. Dartmouth College Deep Blue Medical Advances Inc Drexel University Emblation Ltd Embricon Ltd (Inactive) Endo Tools Therapeutics SA EndoEvolution, LLC Ethicon Endo-Surgery Inc ExpandoHeat LLC Fixit Medical Ltd Fogless International AB G.I. Windows Inc Galil Medical Ltd Garantis Genicon Inc GI Windows Medical Corp Grand Valley State University H. Lee Moffitt Cancer Center & Research Institute Inc Hangzhou Kangsheng Medical Equipment Co Ltd Hannover Medical School Harvard University Hospital for Special Surgery IceCure Medical Ltd Imperial College London Indian Institute of Technology Delhi Innovex Medical Co Ltd Integra LifeSciences Holdings Corp Intuitive Surgical Inc IonMed Ltd. Jinan Micro Intelligent Technology Co Ltd Johns Hopkins University Keren Medical Ltd. LeMaitre Vascular Inc Livsmed Inc LuSeed Vascular Lymphatica Medtech SA MagniFeel Surgical Instruments Mayo Clinic Mecmaan Healthcare Ltd Medical University of South Carolina MediShield B.V. Medtronic Plc Mel Frontier Co Ltd Meta Biomed Co Ltd Michigan State University Naval Medical Research Center Next Science Ltd NorthShore University Health System NOvate Medical Technologies, LLC NoviRad Inc NovoGI LTD Novolock Ltd Novuson Surgical, Inc. Ohio State University Oklahoma State University Olympus America Inc OV World Co Ltd Pacira BioSciences Inc Parker Hannifin Corp Pavmed Inc PetVivo Holdings Inc Physcient, Inc. Polytechnic University of Catalonia Pro-Dex Inc Queen Mary University of London Ra Medical Systems Inc Ramona Optics Inc Ratner BioMedical Inc Resultados y Calidad del Sistema Sanitario Publico de Andalucia Rice University Saint Louis University Samyang Biopharmaceuticals Corp Sanovas Inc Shanghai MicroPort Medical Group Co Ltd Shanghai Shengzhe Medical Technology Co Ltd Shanghai Yichao Medical Equipment Co Ltd Silmag SA simedeq Simon Fraser University StatLink Surgical STRATA Skin Sciences Inc Stryker Corp SurgyAid, LLC Sutura Inc Teleflex Inc Tepha Inc The Feinstein Institute for Medical Research TransMed7 LLC Trinity College Dublin University of Auckland University of California University of California Davis University of California Los Angeles University of California San Diego University of Central Florida University of Chicago University of Maryland University of Maryland Baltimore University of Minnesota University of Missouri University of North Carolina University of South Florida University of Strasbourg University of Texas at Austin University of Texas Medical Branch at Galveston University of Toledo University of Utah University of Virginia US Medical Innovations LLC USGI Medical Inc Vanderbilt University Vascular Insights LLC VB Devices Vessi Medical Ltd Viveve Medical Inc Viveve, Inc. Wake Forest Baptist Medical Center Weill Cornell Medical College West Virginia University X-Biomedical Inc For more information about this report visit https://www.researchandmarkets.com/r/ekyrrp Source: GlobalData

Dublin, Feb. 11, 2021 (GLOBE NEWSWIRE) -- The "Quantum Communications in Space" report has been added to ResearchAndMarkets.com's offering. The modern world more and more relies on information exchange using data transfer technologies. Private and secure communications are fundamental for the Internet, national defence and e-commerce, thus justifying the need for a secure network with the global protection of data. Information exchange through existing data transfer channels is becoming prone to hacker attacks causing problems on an international scale, such as interference with democratic elections, etc. In reality the scale of the "hacking" problem is continual, in 2019 British companies were reportedly hit by about 5,000 "ransomware" attacks that paid out more than $200 million to cyber criminals [1]. During the first half of 2020, $144.2 million has already been lost in 11 of the biggest ransomware attacks [2]. Communications privacy is therefore of great concern at present. The reasons for the growing privacy concerns are [3]: the planned increase of secure information (requiring encryption) data traffic rates from the current 10 to future 100 Gbit/s; annual increases in data traffic of 20-25% and the application of fibre optic cables not only for mainstream network lines by also for the "final mile" to the end-user. These developments are accompanied by [3]: growing software vulnerabilities; more powerful computational resources available to hackers at lower costs; possible quantum computer applications for encryption cracking and the poor administration of computer networks. Conventional public key cryptography relies on the computational intractability of certain mathematical functions. Applied conventional encryption algorithms (DH, RSA, ECDSA TLS/SSL, HTTPS, IPsec, X.509) are good in that there is currently no way to find the key (with a sufficient length) for any acceptable time. Nevertheless, in principle it is possible, and there are no guarantees against the discovery in the future of a fast factorization algorithm for classical computers or from the implementation of already known algorithms on a quantum computer, which will make conventional encryption "hacking" possible. Another "hacking" strategy involves original data substitution. A final vulnerability comes from encryption keys being potentially stolen. Hence, the demand exists for a truly reliable and convenient encryption system. Quantum communications are expected to solve the problem of secure communications first on international and national scales and then down to the personal level. Quantum communication is a field of applied quantum physics closely related to quantum information processing and quantum teleportation [4]. It's most interesting application is protecting information channels against eavesdropping by means of quantum cryptography [4]. Quantum communications are considered to be secure because any tinkering with them is detectable. Thus, quantum communications are only trustful and safe in the knowledge that any eavesdropping would leave its mark. By quantum communications two parties can communicate secretly by sharing a quantum encryption key encoded in the polarization of a string of photons. This quantum key distribution (QKD) idea was proposed in the mid-1980s [5]. QKD theoretically offers a radical new way of an information secure solution to the key exchange problem, ensured by the laws of quantum physics. In particular, QKD allows two distant users, who do not share a long secret key initially, to generate a common, random string of secret bits, called a secret key. Using the one-time pad encryption, this key has been proven to be secure [6] to encrypt/decrypt a message, which can then be transmitted over a standard communication channel. The information is encoded in the superposition states of physical carriers at a single-quantum level, where photons, the fastest traveling qubits, are usually used. Any eavesdropper on the quantum channel attempting to gain information of the key will inevitably introduce disturbance to the system that can be detected by the communicating users. Key Topics Covered: 1. INTRODUCTION 2. Quantum Experiments at a Space Scale (QUESS) 2.1. European root of the Chinese project 2.2. Chinese Counterpart 2.3. The QUESS Mission set-up 2.3.1. Spacecraft 2.3.2. Ground stations 2.3.3. Project budget 2.4. International cooperation 2.5. Results 2.6. Tiangong-2 Space Lab QKD 3. Future plans 4. Comparison to alternatives 4.1. Small Photon-Entangling Quantum System 4.2. Hyperentangled Photon Pairs 4.3. QEYSSat 4.4. Reflector satellites 4.5. GEO satellite communications 4.6. Airborne 4.7. Ground 4.7.1. Moscow quantum communications line 4.7.2. Telephone & optical line communications 5. CONCLUSIONS REFERENCES Companies Mentioned Austrian Academy od Sciences China University of Science and Technology Defence Research and Development Canada Deutsches Zentrum fur Luft- und Raumfahrt European Space Agency Galassia GomSpace NASA National University of Singapore Polytechnic University of Catalonia Rutherford Appleton Laboratory Science and Technology Facilities Council The World Academy of Sciences UK Research and Innovation US Department of Defence University of New South Wales For more information about this report visit CONTACT: ResearchAndMarkets.com Laura Wood, Senior Press Manager press@researchandmarkets.com For E.S.T Office Hours Call 1-917-300-0470 For U.S./CAN Toll Free Call 1-800-526-8630 For GMT Office Hours Call +353-1-416-8900