Research to Business
Offer: 609

Good superconducting links

A connector with low resistance enables superconducting power cables to be connected quickly and efficiently and requiring minimum space.

Roughly 6 centimetre-long sections of the superconducting cables that are to be connected are lying in the copper body of the connector. The cables are subsequently soldered onto the body.

Electricity that is, for example, generated in high-sea wind parks has to be transported to the consumer with minimum losses. Here, in addition to high-voltage direct current transmission, cables consisting of superconducting material offer a promising alternative. Superconductor enable direct current transmission without losses.

State of the art

The method commonly used nowadays to connect the cable sections consists of baring the superconducting cables at their ends and then soldering them to one another individually. However, this process is very time and cost intensive and is unsuitable for applications on an industrial scale. As an alternative, a connecting section made of copper is used into which the cable sections are laid from both sides so that they overlap. The disadvantage of this is the relatively large space required and the high resistance of the copper.

Technology

KIT scientists at the Institute for Technical Physics (ITEP) have developed a connector that consists of a copper body with recesses for the cables. Bands of superconducting material run along these recesses. The cables that are to be connected are closely aligned with the superconducting bands, enabling power transmission from one section to the next virtually without any losses. In order to fixate the connection, a liquid metal alloy is used as solder, and the connector is closed with a lid.

Advantages

The compact copper body can designed in a manner enabling it to link cables either in a straight line or at an angle.

Options for companies

The KIT researchers have already built a prototype of the connector and are now looking for partners to apply the method in practice.

Your contact person for this offer

Dr. Aude PĂ©lisson-Schecker
Innovation Manager Energy
Karlsruhe Institute of Technology (KIT)
Innovation and Relations Management (IRM)
Phone: +49 721 608-25335
Email: pelisson-schecker@kit.edu
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