Tag Archives: BBSRC
In February 2019, EPSRC announced a £30 million investment in three new Manufacturing Research Hubs, including the Future Biomanufacturing Research Hub (FBRH). The FBRH will be led by Professor Nigel Scrutton and based at the Manchester Institute of Biotechnology (MIB), with ‘spokes’ at Imperial, UCL, Nottingham, the UK Catalysis Hub, IBioIC and CPI. Read more
BBSRC is now inviting applications for the annual awards that celebrate the best innovations arising from biological science research.
Each year the BBSRC Innovator of the Year awards recognise and reward individuals and small teams who have harnessed the potential of their excellent research. Read more
Building a low carbon future: £11m to fund Industrial Biotechnology and Bioenergy Networks
Moving to a low carbon economy in the coming decades requires a shift from using fossil resources to provide power, fuel, chemicals and materials. BBSRC, with the support of EPSRC, have committed £11 million to fund 6 unique collaborative Networks in Industrial Biotechnology and Bioenergy (BBSRC NIBB) to support, encourage, and facilitate this essential work. The Networks will run from 2019 to 2024, will provide flexible funding for Proof of Concept projects, and are open to new members throughout their lifetime. Read more
We are pleased to announce that CBMNet member Dr Dan Mulvihill, along with co-investigator Jennifer Hiscock, both from the University of Kent, have been awarded a BBSRC ‘Stand-alone’ LINK grant to fund their ongoing collaboration with Fujifilm Diosynth Biotechnologies. Their partnership was initiated at a CBMNet network event and preliminary data was generated with CBMNet support from two CBMNet Business Interaction Vouchers. Read more
We are pleased to confirm that UK Research and Innovation (UKRI), the Biotechnology and Biological Science Research Council (BBSRC) has agreed to provide a grant of £233,222 to CBMNet to support Industrial Biotechnology Catalyst: Early Stage Feasibility Projects, provided through Wave 1 of the Industrial Strategy Challenge Fund (ISCF). Read more
BBSRC has identified industrial biotechnology and bioenergy as high-level priority areas in its Delivery Plan for 2016-2020. Supporting the BBSRC to achieve its strategic goals, this focused workshop will identify the science and technological barriers that need to be addressed in order to harness the potential of plant ‘cell factories’ for producing biopharmaceuticals. A CBMNet-driven symposium (Manchester, September 2017) brought together key players from Canada, the EU and the UK, to discuss scientific and commercial opportunities and challenges in this space. The goal now is to regroup, with a more focused set of individuals, to refine the landscape and to identify opportunities for collaborative R&D projects involving academia and industry in the UK and Canada. These aims are synergistic with those of CBMNet and IBCarb in the UK, and with the Canadian Glycomics Network, GlycoNet. Read more
BBSRC Responsive Mode Bioenergy strategic priority update buy viagra much
BBSRC has recently updated its Bioenergy Responsive Mode strategic priority, the updated information can be found on the BBSRC website brand viagra 50mg
BBSRC publishes ‘Corporate Stakeholder Research report 2016’
In October 2016 the BBSRC commissioned ComRes to undertake research to gauge stakeholder perceptions of the organisation and measure any change in attitudes since 2014, when an initial wave of benchmarking research was conducted.
The overall aim of this research was twofold: to help BBSRC understand how it is perceived externally, and assess our performance since the 2014 benchmarking research.
Within this, the specific objectives were:
- Measuring BBSRC success in increasing engagement with key stakeholders over time in delivering key objectives set out in our corporate communications and engagement strategy
- Giving a clear picture of how key stakeholders currently view their relationships with BBSRC
- Identifying areas where current relationships can be developed, strengthened and maintained
- Understanding why key stakeholders want to engage with BBSRC and what deliverables they expect from us
- Identifying areas where attitudes have shifted and understand how BBSRC activities have affected this
- Identifying other stakeholders with which BBSRC should be better connected
You can view the results of the research here.
In collaboration with researchers at Nanjing Agricultural University, Dr Tony Miller from the John Innes Centre has developed rice crops with an improved ability to manage their own pH levels, enabling them to take up significantly more nitrogen, iron and phosphorous from soil and increase yield by up to 54%.
Rice is a major crop, feeding almost 50% of the world’s population and has retained the ability to survive in changing environmental conditions. The crop is able to thrive in flooded paddy fields – where the soggy, anaerobic conditions favour the availability of ammonium – as well as in much drier, drained soil, where increased oxygen means more nitrate is available. nitrogen fertilizer is a major cost in growing many cereal crops and its overuse has a negative environmental impact.
The nitrogen that all plants need to grow is typically available in the form of nitrate or ammonium ions in the soil, which are taken up by the plant roots. For the plant, getting the right balance of nitrate and ammonium is very important: too much ammonium and plant cells become alkaline; too much nitrate and they become acidic. Either way, upsetting the pH balance means the plant’s enzymes do not work as well, affecting plant health and crop yield.
Together with the partners in Nanjing, China, Dr Miller’s team has been working out how rice plants can maintain pH under these changing environments.
Rice contains a gene called OsNRT2.3, which creates a protein involved in nitrate transport. This one gene makes two slightly different versions of the protein: OsNRT2.3a and OsNRT2.3b. Following tests to determine the role of both versions of the protein, Dr Miller’s team found that OsNRT2.3b is able to switch nitrate transport on or off, depending on the internal pH of the plant cell.
When this ‘b’ protein was overexpressed in rice plants they were better able to buffer themselves against pH changes in their environment. This enabled them to take up much more nitrogen, as well as more iron and phosphorus. These rice plants gave a much higher yield of rice grain (up to 54% more yield), and their nitrogen use efficiency increased by up to 40%.
Dr Miller said: “Now that we know this particular protein found in rice plants can greatly increase nitrogen efficiency and yields, we can begin to produce new varieties of rice and other crops. These findings bring us a significant step closer to being able to produce more of the world’s food with a lower environmental impact.”
This new technology has been patented by PBL, the John Innes Centre’s innovation management company, and has already been licensed to three different companies to develop new varieties of six different crop species.
This study, which will be published in the Proceedings of the National Academy of Sciences USA, was funded by the Biotechnology and Biological Sciences Research Council (BBSRC) and grants from the Chinese Government.
The paper “Overexpression of a pH-sensitive nitrate transporter in rice increases crop yields” has been published in the Proceedings of the National Academy of Science www.pnas.org/content/early/2016/06/01/1525184113.full
Full article from BBSRC http://www.bbsrc.ac.uk/news/food-security/2016/160628-pr-protein-discovered-boosts-rice-yield/