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News Article | May 10, 2017
Site: marketersmedia.com

Wiseguyreports.Com Adds “Shape Memory Alloy -Market Demand, Growth, Opportunities and Analysis of Top Key Player Forecast To 2022” To Its Research Database This report studies Shape Memory Alloy in Global market, especially in North America, China, Europe, Southeast Asia, Japan and India, with production, revenue, consumption, import and export in these regions, from 2012 to 2016, and forecast to 2022. This report focuses on top manufacturers in global market, with production, price, revenue and market share for each manufacturer, covering By types, the market can be split into By Application, the market can be split into Medical Applications Aircraft Applications Automotive Home Appliance By Regions, this report covers (we can add the regions/countries as you want) North America China Europe Southeast Asia Japan India If you have any special requirements, please let us know and we will offer you the report as you want. Global Shape Memory Alloy Market Professional Survey Report 2017 1 Industry Overview of Shape Memory Alloy 1.1 Definition and Specifications of Shape Memory Alloy 1.1.1 Definition of Shape Memory Alloy 1.1.2 Specifications of Shape Memory Alloy 1.2 Classification of Shape Memory Alloy 1.2.1 Nickel-Titanium (Ni-Ti) Shape Memory Alloys 1.2.2 Copper Based Shape Memory Alloys 1.2.3 Fe Based Shape Memory Alloys 1.3 Applications of Shape Memory Alloy 1.3.1 Medical Applications 1.3.2 Aircraft Applications 1.3.3 Automotive 1.3.4 Home Appliance 1.4 Market Segment by Regions 1.4.1 North America 1.4.2 China 1.4.3 Europe 1.4.4 Southeast Asia 1.4.5 Japan 1.4.6 India 8 Major Manufacturers Analysis of Shape Memory Alloy 8.1 Nitinol Devices & Components 8.1.1 Company Profile 8.1.2 Product Picture and Specifications 8.1.2.1 Product A 8.1.2.2 Product B 8.1.3 Nitinol Devices & Components 2016 Shape Memory Alloy Sales, Ex-factory Price, Revenue, Gross Margin Analysis 8.1.4 Nitinol Devices & Components 2016 Shape Memory Alloy Business Region Distribution Analysis 8.2 SAES Getters 8.2.1 Company Profile 8.2.2 Product Picture and Specifications 8.2.2.1 Product A 8.2.2.2 Product B 8.2.3 SAES Getters 2016 Shape Memory Alloy Sales, Ex-factory Price, Revenue, Gross Margin Analysis 8.2.4 SAES Getters 2016 Shape Memory Alloy Business Region Distribution Analysis 8.3 Johnson Matthey 8.3.1 Company Profile 8.3.2 Product Picture and Specifications 8.3.2.1 Product A 8.3.2.2 Product B 8.3.3 Johnson Matthey 2016 Shape Memory Alloy Sales, Ex-factory Price, Revenue, Gross Margin Analysis 8.3.4 Johnson Matthey 2016 Shape Memory Alloy Business Region Distribution Analysis 8.4 ATI 8.4.1 Company Profile 8.4.2 Product Picture and Specifications 8.4.2.1 Product A 8.4.2.2 Product B 8.4.3 ATI 2016 Shape Memory Alloy Sales, Ex-factory Price, Revenue, Gross Margin Analysis 8.4.4 ATI 2016 Shape Memory Alloy Business Region Distribution Analysis 8.5 Fort Wayne Metals 8.5.1 Company Profile 8.5.2 Product Picture and Specifications 8.5.2.1 Product A 8.5.2.2 Product B 8.5.3 Fort Wayne Metals 2016 Shape Memory Alloy Sales, Ex-factory Price, Revenue, Gross Margin Analysis 8.5.4 Fort Wayne Metals 2016 Shape Memory Alloy Business Region Distribution Analysis 8.6 Metalwerks PMD 8.6.1 Company Profile 8.6.2 Product Picture and Specifications 8.6.2.1 Product A 8.6.2.2 Product B 8.6.3 Metalwerks PMD 2016 Shape Memory Alloy Sales, Ex-factory Price, Revenue, Gross Margin Analysis 8.6.4 Metalwerks PMD 2016 Shape Memory Alloy Business Region Distribution Analysis 8.7 Johnson Matthey 8.7.1 Company Profile 8.7.2 Product Picture and Specifications 8.7.2.1 Product A 8.7.2.2 Product B 8.7.3 Johnson Matthey 2016 Shape Memory Alloy Sales, Ex-factory Price, Revenue, Gross Margin Analysis 8.7.4 Johnson Matthey 2016 Shape Memory Alloy Business Region Distribution Analysis 8.8 Furukawa 8.8.1 Company Profile 8.8.2 Product Picture and Specifications 8.8.2.1 Product A 8.8.2.2 Product B 8.8.3 Furukawa 2016 Shape Memory Alloy Sales, Ex-factory Price, Revenue, Gross Margin Analysis 8.8.4 Furukawa 2016 Shape Memory Alloy Business Region Distribution Analysis 8.9 Nippon Seisen 8.9.1 Company Profile 8.9.2 Product Picture and Specifications 8.9.2.1 Product A 8.9.2.2 Product B 8.9.3 Nippon Seisen 2016 Shape Memory Alloy Sales, Ex-factory Price, Revenue, Gross Margin Analysis 8.9.4 Nippon Seisen 2016 Shape Memory Alloy Business Region Distribution Analysis 8.10 Dynalloy 8.10.1 Company Profile 8.10.2 Product Picture and Specifications 8.10.2.1 Product A 8.10.2.2 Product B 8.10.3 Dynalloy 2016 Shape Memory Alloy Sales, Ex-factory Price, Revenue, Gross Margin Analysis 8.10.4 Dynalloy 2016 Shape Memory Alloy Business Region Distribution Analysis 8.11 Ultimate NiTi Technologies 8.12 Grikin 8.13 PEIER Tech 8.14 Saite Metal 8.15 Seemine 8.16 Smart 8.17 Baoji Seabird Metal 8.18 GEE For more information, please visit https://www.wiseguyreports.com/sample-request/1269835-global-shape-memory-alloy-market-professional-survey-report-2017


Global Nitinol Medical Devices Market by Raw Materials, Finished Products, Trends and Forecast to 2021, New Report by iHealthcareAnalyst, Inc. Nitinol Medical Devices Market by Raw Materials (Nitinol Wires, Nitinol Tubing), and Finished Products (Nitinol Stents, Nitinol Guidewires) and Forecast 2017-2021 Maryland Heights, MO, May 04, 2017 --( Browse Nitinol Medical Devices Market by Raw Materials (Nitinol Wires, Nitinol Tubing), and Finished Products (Nitinol Stents, Nitinol Guidewires) and Forecast 2017-2021 at https://www.ihealthcareanalyst.com/report/nitinol-medical-devices-market/ The global nitinol medical devices market segmentation is based on raw materials (nitinol wires, nitinol tubing, etc.), and finished products (nitinol stents, nitinol guidewires, etc.). The global nitinol medical devices market report provides market size (Revenue USD Million 2014 to 2021), market share and forecasts growth trends (CAGR%, 2017 to 2021). The global nitinol medical devices market report also provides the detailed market landscape (market drivers, restraints, opportunities), market attractiveness analysis and profiles of major competitors in the global market including company overview, financial snapshot, key products, technologies and services offered, and recent developments. The global nitinol medical devices market research report is further segmented by geography into North America (U.S., Canada), Latin America (Brazil, Mexico, Rest of LA), Europe (U.K., Germany, France, Italy, Spain, Rest of EU), Asia Pacific (Japan, China, India, Rest of APAC), and Rest of the World. Major players operating in the global nitinol medical devices market and included in this report are Abbott Laboratories, Inc., Boston Scientific Corporation, Custom Wire Technologies, Inc., C. R. Bard, Inc., Cook Medical, Inc. and Nitinol Devices & Components, Inc. 1. Raw Material 1.1 Nitinol Wires 1.2 Nitinol Tubing 1.3 Others 2. Finished Product 2.1 Nitinol Stents 2.2 Nitinol Guidewires 2.3 Others 3. Geography (Region, Country) 3.1 North America (U.S., Canada) 3.2 Latin America (Brazil, Mexico, Rest of LA) 3.3 Europe (U.K., Germany, France, Italy, Spain, Rest of EU) 3.4 Asia Pacific (Japan, China, India, Rest of APAC) 3.5 Rest of the World 4. Company Profiles 4.1 Abbott Laboratories 4.2 Boston Scientific Corporation 4.3 Cook Medical, Inc. 4.4 Covidien plc 4.5 C. R. Brad, Inc. 4.6 Custom Wire Technologies, Inc. 4.7 ENDOSMART GmbH 4.8 Medtronics, Inc. 4.9 Nitinol Devices and Components, Inc. 4.10 Terumo Corporation To request Table of Contents and Sample Pages of this report visit: https://www.ihealthcareanalyst.com/report/nitinol-medical-devices-market/ About Us iHealthcareAnalyst, Inc. is a global healthcare market research and consulting company providing market analysis, and competitive intelligence services to global clients. The company publishes syndicate, custom and consulting grade healthcare reports covering animal healthcare, biotechnology, clinical diagnostics, healthcare informatics, healthcare services, medical devices, medical equipment, and pharmaceuticals. In addition to multi-client studies, we offer creative consulting services and conduct proprietary single-client assignments targeted at client’s specific business objectives, information needs, time frame and budget. Please contact us to receive a proposal for a proprietary single-client study. Contact Us iHealthcareAnalyst, Inc. 2109, Mckelvey Hill Drive, Maryland Heights, MO 63043 United States Email: sales@ihealthcareanalyst.com Website: https://www.ihealthcareanalyst.com Maryland Heights, MO, May 04, 2017 --( PR.com )-- The use of flexible metal nitinol in medical devices has benefited both manufacturers and patients. The applications of Shape Memory Alloys (SMA) in the manufacturing of implantable medical devices is extensively followed in orthopedics, neurology, cardiovascular and dentistry. SMAs are special class of metals possessing the ability to restore their original shape after severe deformation. The Nickel-Titanium alloy (nitinol) has been found to be the most useful shape memory alloy in biomedical applications, and increased utilization of this alloy to manufacture various medical devices has changed the algorithm of disease treatment. The metal has a unique characteristic to remember and recover its original shape, after being heated above a critical temperature, and also has super elasticity. Other SMAs that are commercially available in the market include copper-zinc-aluminum, copper-aluminum-nickel and iron-manganese-silicon alloys.Browse Nitinol Medical Devices Market by Raw Materials (Nitinol Wires, Nitinol Tubing), and Finished Products (Nitinol Stents, Nitinol Guidewires) and Forecast 2017-2021 at https://www.ihealthcareanalyst.com/report/nitinol-medical-devices-market/The global nitinol medical devices market segmentation is based on raw materials (nitinol wires, nitinol tubing, etc.), and finished products (nitinol stents, nitinol guidewires, etc.).The global nitinol medical devices market report provides market size (Revenue USD Million 2014 to 2021), market share and forecasts growth trends (CAGR%, 2017 to 2021). The global nitinol medical devices market report also provides the detailed market landscape (market drivers, restraints, opportunities), market attractiveness analysis and profiles of major competitors in the global market including company overview, financial snapshot, key products, technologies and services offered, and recent developments. The global nitinol medical devices market research report is further segmented by geography into North America (U.S., Canada), Latin America (Brazil, Mexico, Rest of LA), Europe (U.K., Germany, France, Italy, Spain, Rest of EU), Asia Pacific (Japan, China, India, Rest of APAC), and Rest of the World.Major players operating in the global nitinol medical devices market and included in this report are Abbott Laboratories, Inc., Boston Scientific Corporation, Custom Wire Technologies, Inc., C. R. Bard, Inc., Cook Medical, Inc. and Nitinol Devices & Components, Inc.1. Raw Material1.1 Nitinol Wires1.2 Nitinol Tubing1.3 Others2. Finished Product2.1 Nitinol Stents2.2 Nitinol Guidewires2.3 Others3. Geography (Region, Country)3.1 North America (U.S., Canada)3.2 Latin America (Brazil, Mexico, Rest of LA)3.3 Europe (U.K., Germany, France, Italy, Spain, Rest of EU)3.4 Asia Pacific (Japan, China, India, Rest of APAC)3.5 Rest of the World4. Company Profiles4.1 Abbott Laboratories4.2 Boston Scientific Corporation4.3 Cook Medical, Inc.4.4 Covidien plc4.5 C. R. Brad, Inc.4.6 Custom Wire Technologies, Inc.4.7 ENDOSMART GmbH4.8 Medtronics, Inc.4.9 Nitinol Devices and Components, Inc.4.10 Terumo CorporationTo request Table of Contents and Sample Pages of this report visit:https://www.ihealthcareanalyst.com/report/nitinol-medical-devices-market/About UsiHealthcareAnalyst, Inc. is a global healthcare market research and consulting company providing market analysis, and competitive intelligence services to global clients. The company publishes syndicate, custom and consulting grade healthcare reports covering animal healthcare, biotechnology, clinical diagnostics, healthcare informatics, healthcare services, medical devices, medical equipment, and pharmaceuticals.In addition to multi-client studies, we offer creative consulting services and conduct proprietary single-client assignments targeted at client’s specific business objectives, information needs, time frame and budget. Please contact us to receive a proposal for a proprietary single-client study.Contact UsiHealthcareAnalyst, Inc.2109, Mckelvey Hill Drive,Maryland Heights, MO 63043United StatesEmail: sales@ihealthcareanalyst.comWebsite: https://www.ihealthcareanalyst.com


Runciman A.,University of California at Berkeley | Runciman A.,Lawrence Berkeley National Laboratory | Xu D.,University of California at Berkeley | Xu D.,Lawrence Berkeley National Laboratory | And 3 more authors.
Biomaterials | Year: 2011

Medical devices, particularly endovascular stents, manufactured from superelastic Nitinol, a near-equiatomic alloy of Ni and Ti, are subjected to complex mixed-mode loading conditions in vivo, including axial tension and compression, radial compression, pulsatile, bending and torsion. Fatigue lifetime prediction methodologies for Nitinol, however, are invariably based on uniaxial loading and thus fall short of accurately predicting the safe lifetime of stents under the complex multiaxial loading conditions experienced physiologically. While there is a considerable body of research documented on the cyclic fatigue of Nitinol in uniaxial tension or bending, there remains an almost total lack of comprehensive fatigue lifetime data for other loading conditions, such as torsion and tension/torsion. In this work, thin-walled Nitinol tubes were cycled in torsion at various mean and alternating strains to investigate the fatigue life behavior of Nitinol and results compared to equivalent fatigue data collected under uniaxial tensile/bending loads. Using these strain-life results for various loading modes and an equivalent referential (Lagrangian) strain approach, a strategy for normalizing these data is presented. Based on this strategy, a fatigue lifetime prediction model for the multiaxial loading of Nitinol is presented utilizing a modified Coffin-Manson approach where the number of cycles to failure is related to the equivalent alternating transformation strain. © 2011.


Sengupta A.,University of California at Berkeley | Papadopoulos P.,University of California at Berkeley | Kueck A.,Nitinol Devices & Components | Pelton A.R.,Nitinol Devices & Components
Computational Mechanics | Year: 2011

Fully coupled thermomechanical models for Nitinol at the grain level are developed in this work to capture the inter-dependence between deformation and temperature under non-isothermal conditions. The martensite transformation equations are solved using a novel algorithm which imposes all relevant constraints on the volume fractions. The numerical implementation of the resulting models within the finite element method is effected by the monolithic solution of the momentum and energy equations. Validation of the models is achieved by means of thin-tube experiments at different strain rates. © 2011 Springer-Verlag.


Kuo W.T.,Stanford University | Deso S.E.,Stanford University | Robertson S.W.,Nitinol Devices & Components
Journal of Vascular and Interventional Radiology | Year: 2013

A 48-year-old man presented with symptomatic inferior vena cava (IVC) occlusion from a chronically thrombosed and embedded Vena Tech LGM filter resulting in exercise intolerance from diminished cardiac preload and postthrombotic syndrome from chronic venous insufficiency. The patient was treated using a new PRIME technique - Piecemeal Removal by Intentional MEchanical fracture - to achieve successful filter retrieval 16 years after implantation. Removal of the obstructing filter permitted endovascular IVC recanalization with restoration of venous outflow and alleviation of venous obstructive symptoms. Cardiac preload was restored, allowing the patient to resume long-distance running, and he successfully completed a half-marathon 3 months after treatment. © 2013 SIR.


Kuo W.T.,Stanford University | Robertson S.W.,Nitinol Devices & Components | Odegaard J.I.,Stanford University | Hofmann L.V.,Stanford University
Journal of Vascular and Interventional Radiology | Year: 2013

Purpose: To evaluate clinical outcomes, characterize adherent tissue, and analyze inferior vena cava (IVC) filter fractures in patients undergoing complex retrieval for management of filter-related complications. To elucidate mechanisms of filter fracture by radiographic and electron microscopic (EM) evaluation. Materials and Methods: Over 2.5 years, 50 consecutive patients with fractured and/or penetrating filter components were prospectively enrolled into a single-center study. There were 19 men and 31 women (mean age, 42 y; range, 15-73 y). All patients underwent complex filter retrieval after failure of standard methods, and retrieval indications along with resultant clinical outcomes were evaluated. Specimens with adherent tissue underwent histologic analysis, and all fractured components were studied with EM. Results: Retrieval was successful in all 50 cases (mean implantation, 815 d; range, 20-2,599 d) among the following filters: G2X (n = 23),G2 (n = 9), Eclipse (n = 3), Recovery (n = 4), ALN (n = 1), Celect (n = 7), OptEase (n = 2), and Simon Nitinol (n = 1). Mean indwell time in fractured filters (n = 31) was 1,082 days, versus 408 days in nonfractured filters (n = 19; P =.00169). Neointimal hyperplasia/fibrosis was seen in 46 of 48 specimens with adherent tissue (96%). Among 61 fractured components from conical filters, 35 had extravascular penetration whereas 26 remained intravascular (11 free-floating in IVC, 15 embolized centrally), and EM revealed fracture modes of high-cycle fatigue (n = 53), overload (n = 6), and indeterminate (n = 2). Following retrieval, previously prescribed lifelong anticoagulation was discontinued in 30 of 31 patients (97%). Filter-related symptoms from IVC occlusion, component embolization, and penetration-induced abdominal pain, duodenal injury, and/or small-bowel volvulus were alleviated in all 26 cases (100%). There were no long-term complications at a mean follow-up of 371 days (range, 67-878 d). Conclusions: The risk of filter fracture increases after 408 days (ie,>1 y) of implantation and is associated with symptomatic extravascular penetration and/or intravascular embolization. Complex methods can be used to safely remove these devices, alleviate filter-related morbidity, and allow cessation of anticoagulation. © 2013 SIR.


Ndc

Trademark
Nitinol Devices & Components | Date: 2012-10-30

Nitinol alloys; nitinol alloy materials, namely, sheets, tubes, wires, ingots, and bar stock made from nitinol alloys; nitinol alloys for industrial and consumer applications. Nitinol alloys for medical applications; nitinol alloy materials, namely, sheets, tubes, and wires for medical device implant and medical instrument applications; medical guidewires made of nitinol alloys. Manufacturing and fabrication services of medical components and materials made of nitinol alloys for others; custom manufacturing of medical devices, medical instruments, implantable medical devices and components made of nitinol alloys; processing of medical components made of nitinol alloys. Testing, design, and development of medical components made of nitinol alloys.


Ndc

Trademark
Nitinol Devices & Components | Date: 2012-10-30

Nitinol alloys; nitinol alloy materials, namely, sheets, tubes, wires, ingots, and bar stock made from nitinol alloys; nitinol alloys for industrial and consumer applications. Nitinol alloys for medical applications; nitinol alloy materials, namely, sheets, tubes, and wires for medical device implant and medical instrument applications; medical guidewires made of nitinol alloys. Manufacturing and fabrication services of medical components and materials made of nitinol alloys for others; custom manufacturing of medical devices, medical instruments, implantable medical devices and components made of nitinol alloys; processing of medical components made of nitinol alloys. Testing, design, and development of medical components made of nitinol alloys.


Trademark
Nitinol Devices & Components | Date: 2012-11-30

Nitinol alloys; nitinol alloy materials, namely, sheets, tubes, wires, ingots, and bar stock made from nitinol alloys; nitinol alloys for industrial and consumer applications.


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