Expanded small-cell 3V higher-energy ultracapacitors available now

20-05-2022 | Omni Pro Electronics | Passives

Onmi Pro Electronics has added the Tecate Group’s new 3V TPLH series of small-cell ultracapacitors to its extensive TPL and TPLH 2.7V small-cell ultracapacitor portfolio. The series provides notably higher energy density than current 2.7V products, excellent life performance and enhanced sealing to address high-temperature and humidity-rich applications.

The new series offers the pathway to a higher voltage and greater energy density within the same industry-standard cell footprints, resulting in saved space and may decrease the number of cells needed. The technology improvements are a direct result of propriety innovation in electrode processing and packaging while keeping standard pin-to-pin compatibility for standard can sizes and customised cells and modules on request.

The series ultracapacitor cells range from 4F to 100F and are UL recognised and RoHS and REACH compliant. The new cells offer an ultra-high charge and discharge rate, superior stability, long cycle life, and very high-power density, making them excellent for usage in robotics, material handling, defence applications, consumer devices, handheld scanners, telematics, onboard vehicle security video backup systems and data centre short-term power backup systems.

The ultracapacitor cells series range from 4F to 100F and are UL recognised and RoHS and REACH compliant. The new cells offer an ultra-high charge and discharge rate, excellent stability, long cycle life, and very high-power density, making them ideal for usage in robotics, material handling, defence applications, consumer devices, telematics, handheld scanners, onboard vehicle security video backup systems and data centre short-term power backup systems.

The ultracapacitor cells operate at a temperature range of -40C to +65C (with expanded operating temperature to +85C with voltage derated to 2.7V), projected cycle life of 500,000 and a load life performance of ten years.

By Natasha Shek