Durable interfaces for high currents in energy applications
With the Han® HPR HPTC, HARTING offers durable interfaces to transmit high currents in energy applications. As simple and safe as possible.
The energy transition is well underway and has arrived in all industry segments. Numerous new technologies are being developed which present companies with the challenge of transmitting high currents safely and efficiently. With the Han® HPR HPTC, HARTING offers durable interfaces for high currents in energy applications. As simple and safe as possible. The connectors of the series are characterised by a high energy density: they are designed for operating voltages up to 3.6 kV/1400A (AC/DC) and can withstand environmental influences such as salt spray, dirt and high humidity (IP 68/69). The interface components are designed to be extremely robust so that power transmission between generators, converters and transformers remains stable in the long term.
Higher energy at the same temperature
The Han® HPR HPTC stands out among connectors of the same size due to its higher energy density. This increases flexibility in the application. The compatibility with the flange on the mounting side is critical for the application. On the transformer side, this increases the current-carrying capacity from 1250 A to 1400 A compared to conventional connectors. The Han® HPR HPTC therefore transmits significantly more energy at the same temperature.
High-quality materials ensure a longer lifetime
The housings are made of die-cast aluminium, the HPR surfaces are powder-coated and the contacts are silver-plated. In the case of the socket contact, there is also a special transfer element in the receptacle: two springs wrap around the pin in the socket and ensure the best possible contact, even when forces act on the cable or housing. HPTC interfaces are resistant to shock and vibration. Their contacts are thoroughly protected against external influences; after insertion, the contact is locked in place with a slide in the insulating body. This supports the plug connection mechanically. The housing, insulator and contact thus form a single unit. External forces first act on the cable gland, then on the slide and finally on the contact. The contacts are only subjected to a minimal load.