Carole Llewellyn

Dr. Carole Llewellyn

Department of Biosciences, College of Science, Swansea University, Swansea, United Kingdom
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Research Focus & Metrics

Academic Career Length

44Years (1983-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 May 2012 in Algal Research
Verified
Journal Article
Closed access
PBP. Biller
P. Biller
ARA.B. Ross
A.B. Ross
SSS.C. Skill
S.C. Skill
ALA. Lea-Langton
A. Lea-Langton
BBB. Balasundaram
B. Balasundaram
Carole LlewellynCarole Llewellyn
Carole Llewellyn

1 July 2021 in Biotechnology Advances
Verified
Journal Article
Closed access
RKRahul Vijay Kapoore
Rahul Vijay Kapoore
EWEleanor E. Wood
Eleanor E. Wood
Carole LlewellynCarole Llewellyn
Carole Llewellyn

1 November 2018 in Bioresource Technology
Verified
Journal Article
Open access
WSWilliam A.V. Stiles
William A.V. Stiles
DSDavid Styles
David Styles
SCStephen P. Chapman
Stephen P. Chapman
SESandra Esteves
Sandra Esteves
ABAngela Bywater
Angela Bywater
Carole LlewellynCarole Llewellyn
Carole Llewellyn
Managing organic waste streams is a major challenge for the agricultural industry. Anaerobic digestion (AD) of organicwastes is a preferred option in the waste management hierarchy, as this processcangenerate renewableenergy, reduce emissions from wastestorage, andproduce fertiliser material.However, Nitrate Vulnerable Zone legislation and seasonal restrictions can limit the use of digestate on agricultural land. In this paper we demonstrate the potential of cultivating microalgae on digestate as a feedstock, either directlyafter dilution, or indirectlyfromeffluent remaining after biofertiliser extraction. Resultant microalgal biomass can then be used to produce livestock feed, biofuel or for higher value bio-products. The approach could mitigate for possible regional excesses, and substitute conventional high-impactproducts with bio-resources, enhancing sustainability withinacircular economy. Recycling nutrients from digestate with algal technology is at an early stage. We present and discuss challenges and opportunities associated with developing this new technology.

1 January 1987 in Marine Biology
Verified
Journal Article
Closed access
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PBP. H. Burkill
P. H. Burkill
RMR. F. C. Mantoura
R. F. C. Mantoura
Carole LlewellynCarole Llewellyn
Carole Llewellyn
NON. J. P. Owens
N. J. P. Owens

16 April 2010 in Marine Drugs
Verified
Journal Article
Open access
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Carole LlewellynCarole Llewellyn
Carole Llewellyn
RARuth Airs
Ruth Airs
We provide a direct comparison of the distribution and abundance of mycosporine-like amino acids (MAAs) in a diverse range of microalgal cultures (33 species across 13 classes) grown without supplementary ultraviolet radiation (UV). We compare the MAAs in cultures with those present in characterised natural phytoplankton populations from the English Channel. We detected 25 UV absorbing compounds including at least two with multiple absorption maxima. We used LC-MS to provide chemical characterisation of the six most commonly occurring MAAs, namely, palythene, palythine, mycosporine-glycine, palythenic acid, porphyra-334 and shinorine. MAAs were abundant (up to 7 pg MAA cell−1)in 10 species, with more minor and often unknown MAAs in a further 11 cultures. Shinorine was the most frequently occurring and abundant MAA (up to 6.5 pg cell−1) and was present in all but two of the MAA-containing species. The study provides further insight into the diversity and abundance of MAAs important from an ecological perspective and as potential source of natural alternatives to synthetic sunscreens.