COAST Lab has been used to help prove the commercial viability of Reef Cubes®. Tom Birbeck explains:
“In order to break into significant global markets such as offshore renewables, we need to be able to provide proof that our product will be reliable under all kinds of ocean conditions. At COAST Lab, we have been able to test our product in relation to a range of variables such as currents and water depths. COAST Lab provides physical model testing with combined waves, currents and winds at scales appropriate for device testing, environmental modelling and coastal engineering. It mimics a real-life ocean environment at scale. It really is an incredible resource to have within the South West.
“If we had not been able to use COAST Lab for product testing, we would have had to travel to Amsterdam to find a comparable facility to meet our needs. As a young, small company based in the South West of England, it is fantastic to be able to access these facilities on our doorstep and COAST Lab is providing us with the evidence we need to be able to approach demanding global clients with confidence.”
Two sets of hydrodynamic physical model tests have taken place at COAST Lab to assess the capability of Reef Cubes® to prevent scour and remediation around a monopile.
The first set was performed in early 2018. Testing took place in a flume with a constant current. Reef Cube® bags were successful at remediating a scour pit that had been allowed to develop and in a separate test, they successfully prevented a scour pit from developing.
In May 2019, a larger scale physical modelling test took place in the Coastal Basin at COAST Lab. These tests corroborated the first set, proving that Reef Cube® bags arranged in specific configurations are able to prevent scour around a monopile, in extremely dynamic storm wave conditions with strong currents, at shallow depth. They also showed that the Reef Cubes® remained stable and helped set limitations on the depth of water in which the Reef Cubes® could be used, narrowing the minimum water depth to 10-12 metres. This meant that Reef Cube bags are a feasible option for scour protection. Tom Birbeck says:
“As well as the superb testing facilities, we have been overwhelmed by the helpfulness and the quality of the advice from the researchers and lecturers at University of Plymouth. For example, Business Research Fellows Carlos Perez Collazo and Oscar de la Torre planned and assisted with our testing programme and their contribution has been invaluable. Indeed, all the University staff we encountered have been a fount of knowledge and advice, readily sharing ideas and making suggestions, as well as passing on valuable international leads from their own networks.”
Dr Stuart Stripling, Scientific Manager at COAST Lab, adds:
“We are totally committed to helping businesses test and develop their innovative products and we work closely together in a highly productive partnership.”
Tom Birbeck sums up:
“The whole experience of working with University of Plymouth and COAST Lab has been extremely positive. It is proving to be a valuable catalyst in helping us along our journey towards commercialisation.”
“Because Brixham Laboratory is a hotbed for innovative marine tech companies, we have been able to make valuable contacts there and we are also now collaborating on a joint funding bid in partnership with two other tenants.
“I cannot overstate how important Brixham Laboratory has been to our success so far. Quite simply, we would not have achieved so much without the invaluable support of University of Plymouth’s Brixham Laboratory.”
“ARC marine is a fantastic example of the kind of dynamic, innovative business we are here to support and help grow.”
PMCP is based at the Plymouth Electron Microscopy Centre on the University of Plymouth campus. It is a £1.7 million EU-funded research project that links academics with industry within the South-West of England.
Important research on Reef Cubes was carried out by the project in July and August 2019. This looked at the surface textures of Reef Cubes® to test the adhesion rates for adult and juvenile kelps. It investigated the relationship between organic matter and Reef Cubes® and see how closely they moulded.
The research lab testing showed that they bonded to a higher level than had been expected and that the adhesion rates were very strong. The root systems had bonded themselves to the Reef Cube structure and have become fully integrated into Reef Cubes® proving the potential for widespread rocky reef regeneration.
Dr Natasha Stephen is Director of Plymouth Electron Microscopy Centre and she is also Project Director for the Plymouth Materials Characterisation Project within the centre. She says:
“This pioneering research into the relationship between seaweed growth and synthetic structures is unique; no other studies worldwide have utilised dual-beam electron microscopy to investigate adhesion rates in this level of detail. The results have already been presented at a recent conference amongst PMCP and University of Plymouth partners, and we hope that this is only the beginning of an ongoing research partnership.”
Tom says: “It is extremely exciting to find that the research is ground-breaking and the very first of its kind globally. It has been fantastic working with PMCP on this and we are thrilled to have been able to push at the frontiers of knowledge on the relationship between organic matter and synthetic structures.”
"It has been fantastic working with PMCP on this and we are thrilled to have been able to push at the frontiers of knowledge on the relationship between organic matter and manmade structures."
The University of Plymouth is proud to be a partner on Marine-i, designed to help the marine technology sector in Cornwall and the Isles of Scilly grow through research, development and innovation.
Over the next 20 years, marine technology will be transformed as a new wave of innovation allows us to exploit the full potential of our oceans in ways that were previously not possible. Bringing these new technologies to market will demand new ways of thinking and Marine-i will be pivotal in ensuring new levels of collaboration across different scientific and technical disciplines.
Marine-i is part funded up to £6.8 million from the England European Regional Development Fund (ERDF) as part of the European Structural and Investment Funds (ESIF) Growth Programme 2014-20. The Department for Communities and Local Government is the Managing Authority for ERDF.