Paragraf Limited

This is a disruptive project to develop a proof-of-concept, completely novel, semiconductor memory technology using a new class of ferroelectric materials complemented with graphene transistors. To do this, Paragraf Ltd. will partner with Prof. Judith Driscoll's research group. Paragraf Ltd., the world-leader in graphene semiconductor devices, has develop...

The aim of this project is to develop the world's first graphene-silicon semiconductor device product. To do this, Paragraf, the world leader in graphene semiconductor devices, will partner with Futurecore, the Korean leader in precision electronics. Paragraf's first product is a Hall sensor made from graphene. This is at present a discrete component, whi...

Paragraf is the first company in the world to produce graphene-based electronic devices using standard semiconductor processes. Paragraf has grown rapidly since spinning out from Cambridge University in 2017, developing and selling its first graphene based Hall-effect magnetic sensor devices in 2019\. Since then, Paragraf's sample products that have gener...

Paragraf is the first company in the world to produce graphene-based electronic devices using standard semiconductor processes. We have grown rapidly since spinning out from Cambridge University in 2017, developing and selling our first graphene based Hall-effect sensor (GHS) devices in 2019\. Since then, our sample products that have generated a great de...

This project brings together a UK SME, Paragraf Ltd., the University of Manchester NIHR Biomedical Research Centre, the University of Liverpool Institute of Infection and the University of Newcastle NHS trust to develop and test novel in-vitro diagnostic electronic devices made from graphene. Paragraf has developed a unique and groundbreaking production m...

To develop the next generation graphene-OLED display product for smart screens. To investigate the post-processing of graphene, the effect on key graphene properties and the exploitation of post-deposition processing to integrate graphene electrodes into smart displays.

The aim of Project High-T Hall is to demonstrate an integrated UK supply chain solution for advanced Hall sensing within PEMD. This would bring together a UK SME (Paragraf Ltd.) as the Hall sensor die producer, TT Electronics (Semelab and AeroStanew) to provide bespoke packaging solutions and Rolls Royce as the end user/customer of the devices. Technical ...

This is a disruptive project to research and develop a manufacturing process for graphene electronic devices. Graphene, a single atomic layer of carbon, was discovered in 2004 at the University of Manchester, and its discoverers were subsequently awarded the Nobel Prize in 2010. This novel material has amazing properties: optically transparent, more elect...

"Discovered by scientists at the University of Manchester in 2004, Graphene is called a wonder material, because it has such phenomenal properties. It is more electrically conductive than copper, stronger than stainless steel, it is flexible and it is almost fully transparent. No other material has such a combination of outstanding properties. Its use in ...

Development and testing of high-reliability and high-efficiency motors for aerospace applications is becoming a key dependency for the introduction of the More/All Electric Aircraft. The project will develop real-time imaging of motor flux density characteristics, addressing an industry requirement for a scanner that can be modified to arbitrary stator/ar...

This is a disruptive project to replace Indium Tin Oxide (ITO) by next-generation graphene in a range of electronic and light emitting devices. ITO is the most common transparent conductive material used today because of its high electrical conductivity, high optical transparency and ease of deposition. Because of this remarkable combination of properties...

"This project aims to demonstrate a completely new energy harvesting technology based on the wonder material graphene, exploiting the as yet unlocked electronic energy stored within salt in seawater. While many energy harvesting solutions exist already (solar, thermoelectric, piezoelectric, etc.), none are capable of generating power directly from charged...