Company profile
B G Research Limited
BG Research: Innovation..... It's in Our DNA
BG Research is dedicated to supporting the technology led actionable strategy of At Patient Testing (APT) - true point of care testing in any environment
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Updated 06 Jun 2026 16:52
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Published 26 May 2026 14:36
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Incorporated
InceptionCompany registered at Companies House
Public funding
Projects
Aston University and B G Research Ltd KTP24_25 R1
10 Apr 2025 to 10 Oct 2026
_To advance the novel CENOS medical device to the required Manufacturing Readiness Level to enable scaled production. CENOS enables the rapid, mobile detection of a range of significant animal and human diseases._
Demonstrating the potential for portable detection of bird flu.
1 Feb 2024 to 31 Jan 2025
Project aim is to provide capability for early in-field direct testing of unprocessed biological samples e.g. swabs and blood for economically important veterinary pathogens, in this case screening swab samples taken from the beaks and cloaca of birds for detecting "bird flu". Initially we aim to support existing lab testing and ultimately explore the pot...
In-field detection of economically important viral veterinary pathogens.
1 Dec 2023 to 30 Nov 2025
Project objective is to provide capability for early in-field direct testing of swabs and blood for economically important veterinary pathogens in, supporting existing lab testing. BGR have developed a novel method and instrument for performing sensitive in-field molecular diagnostic tests for the detection of viruses without the requirement for expert sc...
Evaluation and EUA validation of a production ready portable, Point-of-Need Platform for detection of COVID-19 direct from nasal swabs in 30 minutes.
1 Aug 2020 to 30 Nov 2021
BG Research have a simplified method for testing patients for infections caused by viruses, the QuRapID-XF technology. Developed in response to the Ebola outbreak, it enables portable testing directly from patient samples. This removes the need for a lab or expert users -- important as it was designed to be used in resource poor environments in rural Afri...
Building a prototype PCR reaction vessel for the direct detection of pathogens from blood
1 Jan 2019 to 31 Dec 2019
BGR has developed a method for detecting viral pathogens directly from crude samples, removing the requirement for complex lab facilities or expert use. The technique was originally developed in the wake of the 2015 Ebola outbreak to establish if it is possible to perform laboratory standard molecular diagnostics in resource poor environments. The proposa...
Investigating the feasibility of adapting a direct PCR diagnostics approach to in-field animal testing
1 Nov 2018 to 31 Aug 2021
BGR has developed a method for detecting viral pathogens directly from patients, removing the requirement for complex lab facilities or expert use. While human diagnostics has evolved, there has been little progress for testing animals for important pathogens. The UK foot and mouth disease outbreaks in 2001 cost the country over £3bn in losses to the agri...
Investigating the direct detection of sepsis causing bacteria from whole human blood.
1 Sep 2017 to 31 Aug 2018
The project investigates the feasibility of detecting bacterial infections, causing sepsis, directly from whole human blood. The process involves lysing the bacterial cells by rapid cyclical freezing and boiling followed by detection of the released nucleic acid by real-time PCR. This novel approach will enable detection of bacterial infection in the crit...
Differential diagnostics of haemorrhagic fevers in resource poor environments.
1 Sep 2016 to 30 Sep 2017
This project centres on the proof of concept of a simple, rapid diagnostic platform for the differentiation of viral haemorrhagic fevers in resource poor environments. The benefits of this approach; 1. Simplicity, requiring only a fingerprick of blood. 2. Reduced time to detection, from blood to result in around 30 mins. 3. Suited to resource poor environ...
Ultra-rapid full spectral detection optical system facilitating novel PCR based assays- The iPCR approach
1 Sep 2014 to 29 Feb 2016
This project will generate an optical detection system and associated software for true realtime determination of fluorescence levels generated during real-time PCR. BioGene (BG) has a technology platform capable of completing the real-time PCR process in 10 minutes and this speed combined with independent reaction control lends itself to a number of nove...
Novel DNA fingerprinting apparatus:Portable,Ultra-Rapid and single base pair resolution
1 May 2014 to 31 Jan 2016
This project will produce and evaluate protype consumables suitable for the diagnostic separation and detection of DNA targets differing by only a single base pair in length. A large number of genetic tests rely on polymorphisms between DNA molecules, including DNA fingerprinting. The standard kits available on the marketplace involve the use of expert op...
Rapid, on-chip, multiplexed detection of sepsis-causing organisms from blood samples
1 Oct 2012 to 31 Dec 2016
BioGene, BG Research, and the University of Hull are working together to bring rapid, accurate testing for sepsis to the point of care. The system will identify not only the pathogen but also provide information on its antibitiotic sensitivity and in less than 1 hour, allowing the clinical team to correctly and rapidly treat the infection, saving both liv...
Development of a highly multiplexed optical detection system for analysis of complex, PCR-based DNA tests.
1 Dec 2011 to 31 Mar 2013
Recent increases in genomic information has led to an exponential increase in the numbers of genetic diseases characterised. This and a greater understanding of the infection process, generates the need to detect larger numbers of targets such as pathogens and disease causing genetic variants as rapidly as possible and in a single test. One such approach ...