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Florence, Italy
11-50 Employees
2007
Magenta was established in 2007 as a software company based in Florence, Italy; the company grows on a solid base of competence and experience that the founders acquired during several years of activity both in the industrial and in the academic context. Our core activity is to work together with other companies from various sectors to provide them consult on the most appropriate and innovative IT technologies for the application at hand. We support companies in the design and implementation of software applications, offering advice on the most innovative technologies available in the IT landscape.
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SOLE-CUT – Shape MemOry aLloys for stone machining and computer aided Technology
... SOLE-CUT – Shape MemOry aLloys for stone machining and computer aided ...
Bochum, Germany
51-100 Employees
2009
Als Experte für Formgedächtnislegierungen bietet Ingpuls aus Bochum Ihnen ein breites Spektrum an individuellen Produkten und Services im Bereich Formgedächtnislegierungen und Formgedächtnistechnik an.
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Ingpuls' characterisation of NiTi shape memory alloys (SMA)
... Shape memory alloys, nickel titanium alloys or nitinol can be characterized by different methods. Ingpuls explains the technology by using materials science. ...
Kruibeke, Belgium
1-10 Employees
2018
Our mission is to support entrepreneurs with the development of successful businesses using space technology, data, and services. Therefore, we provide businesses from all sectors with access to cutting-edge space technology through our technology transfer activities. ESA Space Solutions Belgium is the centre for space-related innovation in Belgium and the go-to place for entrepreneurs with innovative business ideas using space to create a better world. The demand for systems that operate reliably for years on end, with no chance of repair, presents a perpetual challenge to scientists and engineers. The resulting technologies are in a class of their own, offering valuable attributes to terrestrial industries. The network provides excellent opportunities to connect start-ups with new business partners. Within the ESA Technology Broker Network, we are connected to dedicated specialists bringing together space and non-space industries that are embedded in the regional and national innovation ecosystems of their country.
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Shape memory alloy pipe coupling
... Shape memory alloy pipe ...
United States
11-50 Employees
The S125 actuator (left) is production-ready for high volume applications. Miga Robotics is a division of Miga Motor Company focusing on robotic applications of Shape Memory Alloys. Miga Motor Company designs and manufactures a new type of electrically powered actuator, that can replace old-fashioned motors and solenoids in many applications.
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Shape Memory | Miga Robotics | Silverton
... Miga Robotics develops robotic solutions using shape memory alloy wires. ...
Karlsruhe, Germany
11-50 Employees
2016
Die memetis GmbH entwickelt und fertigt ultrakompakte Miniaturventile und hochintegrierte mikrofluidische Systeme. Obwohl durch moderne Synthesen Bibliotheken mit mehreren tausend ... In unserem YouTube Kanal werden regelmäßig Videos zu den Themen Ventilanwendungen, Formgedächtnisaktorik und vielem mehr veröffentlicht.
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Miniature Valves for Microfluidics | Memetis
... Shape memory alloys for movement in your ...
Brunnen, Switzerland
2014
Wir sind das weltweit führende Unternehmen für Bauwerksverstärkungen mit der eisenbasierten Formgedächtnislegierung «memory®-steel». Durch die innovativen und 100% rezyklierbaren Produkten bieten wir dem Bauherrn und dem Planer Mehrwert durch effiziente, ganzheitliche und nie dagewesene bautechnische Möglichkeiten. Die neuen Sika at Work Dokumente geben interessante Einblicke in Verstärkungsarbeiten mit memory-steel und Sika Produkten.
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memory®-steel für Bauindustrie | Tragwerksverstärkung | Umbau | memory-steel für Bauwerksverstärkung
... Eisenbasierte Formgedächtnislegierung (iron-based shape memory alloy Fe-SMA), eine neuartige Vorspanntechnik. ...
Suzhou City, China
1-10 Employees
2018
We are professionally manufacturing materials with unique features, which are then used in aerospace, military, electronics, marine, petroleum and petrochemical industries. Suzhou Xunshi New Material Co., Ltd (refered as Xunshi afterwards) is a professional supplier of high performance alloys. Our factory is specialized in manufacturing Nickel alloys & Cobalt alloys for 10+ years，with a company mission to provide a high quality, reliable source for precision alloys, high temperature alloys and stainless steels in both pilot run and mass production. Base on “Quality-oriented, Leading Technology, Continuous Improvement, Customer Satisfaction”, we believe Xunshi could be your best supplier. With your drawing&specification, Xunshi is able to deliver machined parts with strict tolerance requirements. Xunshi provides heat treatment service to help customers who are not able to carry out propery heat treatment in their factory, while this is critical for the material. Wherever the customer is, Xunshi will delivery the products as it is produced. We have professional sales team , technical production team and after-sales service team , we are committed to provide you with high quality products and perfect service.
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Quality Nickel Cobalt Alloy & Soft Magnetic Alloys factory from China
... Magnetic Shape Memory Alloy ...
501-1000 Employees
1836
Whether our products are used for Launch Vehicle stage separation, Missile motor ignition, Satellite solar array release, or Warfighter door breaching, our products and capabilities enable your mission success today, and in the future. Our Vision: EBAD is the global provider of integrated solutions critical to mission success. Our Mission: To inspire our employees to achieve their full potential and continuously improve and implement strategies to best serve our customers. EBAD’s satellite HDRM’s have the broadest use in the US and European space market, having been used on over 500 platforms to date. EBAD has designed, qualified and delivered more HRDMs for spaceflight applications than anyone else in the world. For almost 60 years, EBAD has supplied initiation, separation, and flight destruct hardware for commercial and government launches. EBAD is the industry leader for highly reliable precision ordnance solutions. We are constantly investing in our future at Ensign-Bickford Aerospace & Defense.
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Shape Memory Alloy Technology - Ensign-Bickford Aerospace & Defense
... Shape Memory Alloy Technology - Ensign-Bickford Aerospace & ...
Tallinn, Estonia
1-10 Employees
2021
Currently, our company provide its customers with nanostructured (1 nm to 100 nm) and ultrafine-structured (0.1 um to 5 um) powder materials & gives consultation in following areas such as ;.
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Shape Memory Polymer NGM9020, Ether Type - Nano Powder Online Buy
... Nitinol Shape Memory Alloy Sheet, Thickness: 0,5 mm, AF: 80-85° ...
Technologies which have been searched by others and may be interesting for you:
Some interesting numbers and facts about the results you have just received for Shape Memory Alloys
| Country with most fitting companies | United States |
| Amount of fitting manufacturers | 25 |
| Amount of suitable service providers | 17 |
| Average amount of employees | 11-50 |
| Oldest suiting company | 1836 |
| Youngest suiting company | 2021 |
Shape Memory Alloys (SMAs) are a unique class of metallic materials that can return to their original shape after being deformed, once a specific temperature threshold is reached. This extraordinary property, known as the shape memory effect, arises from a solid-solid phase transition that these materials undergo. Typically composed of nickel-titanium or a combination of copper, zinc, and aluminum, SMAs have the ability to remember their pre-deformed shape, allowing them to revert to it upon heating above a certain temperature. The implications of this characteristic are vast and transformative across various sectors. In the medical field, for example, SMAs are utilized in the manufacturing of stents and orthodontic wires, which can be easily inserted in a compact form and then expand to their intended shape inside the body. The aerospace industry benefits from SMAs in the development of morphing structures and actuators, where the materials' ability to change shape with temperature variations can be leveraged for adaptive control surfaces on aircraft. Moreover, SMAs have found applications in the automotive industry, where they contribute to more energy-efficient systems, such as in actuators that improve fuel efficiency by optimizing engine conditions. The inherent properties of shape memory alloys, including biocompatibility, corrosion resistance, and high fatigue strength, further enhance their appeal across these diverse applications, underscoring their significance in advancing technological innovation and functionality within their respective fields.
1. Superior Elasticity
Shape memory alloys exhibit a unique ability to return to their original shape after deformation, when exposed to the appropriate temperature. This characteristic, known as pseudoelasticity, allows them to absorb large strains, up to 8%, which is significantly higher than that of conventional materials.
2. High Energy Absorption
These alloys are capable of absorbing and dissipating a considerable amount of energy, making them ideal for applications requiring vibration damping and impact absorption. This property is particularly beneficial in the automotive and aerospace industries, where safety and durability are paramount.
3. Biocompatibility
Nickel-titanium, a common type of shape memory alloy, is widely recognized for its compatibility with the human body. This makes it an excellent choice for medical devices, such as stents and orthopedic implants, as it minimizes the risk of rejection and promotes faster recovery.
4. Thermal Actuation
The ability of shape memory alloys to actuate with changes in temperature offers a distinct advantage in applications requiring self-adjusting mechanisms without the need for external power sources. This characteristic is exploited in various industries for developing more efficient and autonomous systems.
While evaluating the different suppliers make sure to check the following criteria:
1. Alloy Composition
Ensure the supplier provides a detailed analysis of the alloy composition, as this affects the material's phase transition temperatures and mechanical properties.
2. Manufacturing Capabilities
Evaluate their ability to produce the shape memory alloys in various forms such as wire, ribbon, or tubes, tailored to your specific application needs.
3. Quality Assurance Processes
Check for certifications like ISO 9001 to ensure the supplier maintains high standards in quality control and product consistency.
4. Technical Support
A supplier with knowledgeable technical support can assist in selecting the right alloy and provide guidance on optimizing its use in your applications.
5. Customization Options
Determine if they offer customization services like alloy modification and shaping to meet unique application requirements.
6. Lead Times and Reliability
Assess the supplier's track record for on-time deliveries and their ability to maintain consistent supply chains.
7. Cost-Effectiveness
While not compromising on quality, consider the overall cost-effectiveness of their products and services to ensure they meet your budgetary constraints.
Shape memory alloys (SMAs) have revolutionized several industries with their unique ability to return to a pre-defined shape when heated. In the aerospace sector, SMAs are employed for their lightweight and high resistance properties, making them ideal for components like actuators and connectors that can adapt to temperature changes and reduce overall aircraft weight. This innovation not only enhances fuel efficiency but also improves aircraft performance and reliability. In the medical field, SMAs are transforming patient care through minimally invasive surgical tools and implants, such as stents and orthodontic wires. These materials adapt to body temperature, allowing for easier insertion and better fit, thereby reducing recovery times and improving patient outcomes. The ability to be compacted and then expand to a predetermined shape within the body is a groundbreaking feature that has made SMAs indispensable in modern medical procedures. The automotive industry benefits from the unique properties of SMAs in manufacturing actuators for precise control in various systems, including fuel injection and ventilation. These alloys offer significant advantages in terms of energy efficiency and durability, contributing to the development of more reliable and eco-friendly vehicles. Their capacity for shape transformation under specific conditions facilitates innovative designs and functionalities, enhancing vehicle performance and user experience. Through these diverse applications, SMAs are playing a crucial role in advancing technology and efficiency across multiple sectors, demonstrating their vast potential and versatility in industrial uses.
Shape memory alloys (SMAs) have reached a significant degree of maturity, typically positioned at a Technology Readiness Level (TRL) of between 7 to 9, depending on their specific application and development phase. This advanced TRL status is attributed to the extensive research, development, and operational testing these materials have undergone, particularly in sectors such as aerospace, biomedical, and automotive industries. The reason for their high TRL lies in the unique properties of SMAs, which can return to their original shape after deformation when exposed to the appropriate thermal conditions. This characteristic, coupled with their high fatigue resistance and capacity to absorb significant energy, has led to successful real-world applications, including actuator devices, medical stents, and morphing aircraft structures. The evolution to this advanced TRL stage has been supported by overcoming initial challenges related to the predictability and control of their shape memory behavior, improvements in their fatigue life, and the development of efficient manufacturing processes. However, the specific TRL can vary, as newer alloys or novel applications might still be in the experimental or prototype testing stages, highlighting the dynamic and evolving nature of SMA technology.
In the Short-Term, advancements in shape memory alloys (SMAs) are expected to focus on enhancing their fatigue resistance and mechanical properties. Researchers are increasingly experimenting with nanostructuring and surface treatments to improve the endurance and reliability of SMAs in applications such as medical devices and actuators. These modifications aim to extend the lifecycle of SMA components, making them more viable for a broader range of industrial applications. Looking at the Mid-Term developments, the integration of SMAs with smart technologies is anticipated to gain momentum. This phase will likely witness the creation of more adaptive and responsive systems, where SMAs are embedded into the fabric of smart textiles or used in the development of innovative automotive and aerospace components. The emphasis will be on exploiting the unique properties of SMAs to develop systems that can react dynamically to environmental changes, offering improved energy efficiency and functionality. In the Long-Term, the exploration of SMAs is set to venture into the realms of biocompatibility and environmental sustainability. Future research will potentially unveil new alloys that are not only more compatible with the human body for medical implants but also degrade less over time, reducing environmental impact. The long-term vision includes the development of SMAs that can be safely absorbed by the body or are made from materials that are more abundant and less harmful to ecosystems, paving the way for groundbreaking applications in medicine and eco-friendly technologies.
