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R&D partners sought for an electromechanical transducer based on sliding nano-actuator with applications in medicine, robotics and engineering

Country of origin:
Country: 
CZECHIA
Opportunity:
External Id: 
TOCZ20200708002
Published
08/07/2020
Last update
13/07/2020
Expiration date
14/07/2021

Keywords

Partner keyword: 
Micro and Nanotechnology related to Electronics and Microelectronics
Electronic engineering
Microengineering and nanoengineering
Bioinformatics
Micro- and Nanotechnology related to Biological sciences
Other electronics related equipment
Biochemistry / Biophysics
Micro- and Nanotechnology related to Biological sciences
Electromedical and medical equipment
Other medical/health related (not elsewhere classified)
Manufacture of electronic components
Manufacture of computers and peripheral equipment
Manufacture of consumer electronics
Other research and experimental development on natural sciences and engineering
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Summary

Summary: 
The researchers from the Czech university have developed an electromechanical transducer based on sliding nano-actuator. The application potential is in areas of robotics (micro- and nanoelectromechanical systems, electronics, automotive, aerospace, defence), medicine (surgery and orthopaedics, cardiac surgery, ophthalmology) and general engineering. The researchers are looking for partners interested in research or technical cooperation.

Description

Description: 

An electromechanical transducer is a device which transforms electrical energy into mechanical work. Transducers are applied extensively in all spheres of our environment. They are well established in classical engineering as electrical motors, electromagnets, electro-mechanical systems with pneumatic or hydraulic cylinders, and also in microelectronics. The electromechanical transducers are called actuators that link the information-processing component of electronic control circuitry with technical processes.

The classical concept of interpreting a function of a biological muscle is based on biochemical reactions inside myosin head, which lean on them and cause a shift in the fibres of proteins (actin and myosin fibres) leading to contraction of the muscle. According to this concept, it is practically impossible to design an actuator converting electrical energy into mechanical by biochemical reactions. The new concept is based on a new original hypothesis on the main role of electrostatic forces between the two types of fibre using optimal design.

The researchers from the Czech university have developed an electromechanical transducer based on sliding nano-actuator (SNA). This device converts an electrical energy into mechanical work performed by a combination of force and displacement. Function of a sliding nano-actuator is based on a mutual alternating slipping of two systems of filaments. Large compound actuators with high performance can be built from key elements using modular design.

The solution offered describes a relatively similar but artificial structure of inorganic or polymeric materials. The result is an ideal actuator (linear motor), its reverse function as a mechanical energy converter to an electric energy (electric current generator), a super capacitor (high-capacity power storage) or an accurate position sensor. An advantage compared to conventional piezoelectric actuators is several orders of magnitude similarly to biological muscle, comparable response rate to excitation pulse, possibility of activation with voltages less than 1 Volt, simple modular construction, flexibility, biocompatibility.

The applications are in the fields of robotics (micro- and nanoelectromechanical systems, electronics, automotive, aerospace, defence), medicine (surgery and orthopaedics, cardiac surgery, ophthalmology, ear, nose, and throat) and in engineering in general.

The electromechanical transducer based on sliding nano-actuators (SNA) can be applied extensively for many control tasks in natural and artificial environments. Its microelectronic compatible input signals can be generated by the electronic control circuitry.

Medicine can use such actuators for drug transportation, diagnostics, active biocompatible polymer implants instead of muscles with a driving voltage comparable to the action potentials, orthopaedics, surgery etc.

The researchers are looking for cooperation with research institution or a company having skills in development of new applications for such electromechanical transducer.

In the case of research cooperation agreement - cooperation based on a joint European project (e.g. Horizon 2020) is preferred.

In the case of technical cooperation agreement - the aim of the cooperation is to utilize the know-how and jointly develop new applications and subsequently commercialize the invention.

Advantages & innovations

Cooperation plus value: 
- An electromechanical transducer based on sliding nanoactuator have substantially smaller dimensions, larger deformation, shorter response time, higher wattage density, better positioning accuracy, and lower input voltage - Sliding nano-actuators (SNA) can provide engineering science with a simple analogy to the technical actuators of high performance - Large compound systems with high performance can be built using the modular design from the nanometric size of the key elements - Electronics and micro (nano)-electro-mechanical-systems (MEMS, NEMS) will use the small size of the key element with short response time, low driving voltage, and large displacement with an excellent positioning accuracy

Stage of development

Cooperation stage dev stage: 
Available for demonstration

Partner sought

Cooperation area: 
The researchers are looking for industry partners or research institutes in order to further develop applications with commercial potential. In the case of research cooperation agreement – joint European project (e.g. Horizon 2020) cooperation is preferred. In the case of technical cooperation agreement - the aim of the cooperation is to jointly develop new applications and commercialize them in various industry areas.

Type and size

Cooperation task: 
SME 11-50,R&D Institution,SME <10,>500 MNE,251-500,SME 51-250,>500