David Beerling | |
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Born | David John Beerling [1] |
Alma mater | University of Wales, College of Cardiff (BSc, PhD) |
Known for | The Emerald Planet [2] |
Spouse | Juliette Dawn Fraser (m. 2011) |
Children | Joshua[ citation needed ] |
Awards | |
Scientific career | |
Fields | |
Institutions | |
Thesis | The ecology and control of Japanese knotweed (Reynoutria japonica Houtt.) and Himalayan balsam (Impatiens glandulifera Royle.) on river banks in South Wales (1990) |
Doctoral advisor | Ron Walter Edwards [4] [5] |
Website | www |
David John Beerling FRS [6] FLSW (born 21 June 1965) [1] is the Director of the Leverhulme Centre for Climate change mitigation and Sorby Professor of Natural Sciences in the Department of Animal and Plant Sciences (APS) at the University of Sheffield, UK. [3] [7] [8] [9] [10] [11] He is also Editor-in-Chief of the Royal Society journal Biology Letters .
Beerling was educated at University of Wales, College of Cardiff where he was awarded a Bachelor of Science degree in Botany in 1987 followed by a PhD in 1990 [4] for research into the biogeography, ecology and control of two important and highly invasive alien plant species Japanese knotweed Reynoutria japonica and Himalayan balsam Impatiens glandulifera. His PhD was supervised by Ron Walter Edwards CBE [4] and he authored two ecological monographs on the species [12] [13] and scientific papers reporting simulated projections of their potential future distributions in Europe with global climate change. [14] [15]
This article may be too technical for most readers to understand.(March 2016) |
Beerling's research group investigate fundamental questions concerning the conquest of the land by plants and the role of terrestrial ecosystems in shaping Earth's global ecology, climate and atmospheric composition. This is achieved by approaches that integrate evidence from fossils, experiments and theoretical models applied across spatial and temporal scales. Increasingly, his group's research discoveries are informing our understanding of current global climate change issues.
An important early success of his biophysical approach to palaeobotany was the discovery of evidence for a substantial increase in the atmospheric CO₂ concentration and 'super-greenhouse' conditions across the Triassic-Jurassic (Tr-J) boundary, 200 million years ago, based on analyses of fossil stomata and leaf morphology from Greenland. [16] This causally linked a catastrophic extinction event with the break-up of Pangaea. Before his group's work, the Tr-J extinction represented one of the most poorly understood of the so-called 'big-five' mass extinctions in the Phanerozoic (past 540 million years). His paper resulted in major new international research programmes that subsequently identified evidence confirming the carbon cycle perturbation in marine and terrestrial sediments world-wide. He extended this discovery by evaluating hypothesized causal mechanisms with numerical geochemical carbon cycle modelling in collaboration with the Yale University geochemist Robert Berner. [17]
Beerling was the only UK participant in an international consortium led by James Hansen (former Director of the Goddard Institute for Space Studies) analysing Cenozoic CO₂ and palaeoclimate evidence to investigate the broader societal question of the target CO₂ level required to avoid 'dangerous' anthropogenic interference of the climate system. Stabilization of human-made greenhouse gases in the atmosphere at a level avoiding this concern is a core objective of the United Nations Framework Convention on Climate Change. The resulting 2008 'Target CO₂' paper [18] made the front page of the UK newspaper The Guardian which commented:
"World's leading climate scientists warn today that the EU and its international partners must urgently rethink targets for cutting carbon dioxide in the atmosphere because of fears they have grossly underestimated the scale of the problem" [19]
Beerling is a leading architect in the field of experimental palaeobiology, adopting advanced experimental research programmes to address fundamental questions raised by the fossil record of plant life. Characterized by the formulation and evaluation of rigorous hypotheses, these programmes demonstrate how experimental evidence serves to deepen our causal understanding of past events. By productively collaborating with Jonathan Leake, [20] his group established essential missing functional evidence supporting the long-standing conjecture, based largely on 400-million-year-old-fossils from the Devonian Rhynie chert, [21] that the establishment of rootless early land plants in skeletal soils was promoted by their mutualistic symbiotic partnership with soil fungi. [22] They went on to reveal how the simulated high CO₂ Palaeozoic atmosphere and arbuscular mycorrhizal fungi synergistically enhanced plant fitness to create uniquely strong selection pressures favouring the establishment of mycorrhiza-like partnerships in 'lower' land plants. These findings now place fungi as key players in the earliest symbiotic events during the greening of the Earth's land-masses.
Beerling's investigations into vegetation interactions with past environments extend to those guided by the fossil remains of ancient polar forests. Through a creative combination of experiments simulating high CO₂ ancient polar environments, and modelling of forest biogeochemistry, his group's analyses helped define our modern understanding of the physiological ecology of Mesozoic high-latitude forests [ref]. In doing so, they overturned 'textbook dogma' concerning the adaptive significance of polar forest deciduousness, established following Scott of the Antarctic's discovery of Glossopteris fossils on the Beardmore Glacier at 82ºS in 1912. [23] BBC News covered these findings in a 2003 report 'Antarctic Scott's lasting legacy' [24] and again in a 2011 report entitled 'Secrets of Antarctica's fossilised forests'. [25]
Beerling's has published over 200 papers in leading peer reviewed scientific journals including Science [26] [27] and Nature . [28] [29] [30] [31] [32] [33] [34] [35]
Beerling's best-selling popular science book The Emerald Planet: How plants changed Earth's history [2] presents a case for recognising the role of plants in shaping Earth's history. Reviewed in many journals (e.g. Nature [36] ) and newspapers, including The Times [37] and The Guardian , [38] the book was named by Oliver Sacks as his favourite non-fiction book of the year in The Observer . [39] Sacks wrote of it
The story Beerling tells could not have been put together even 10 years ago, for it depends on the latest insights from palaeontology, climate science, genetics, molecular biology and chemistry, all brilliantly and beautifully integrated.
The Emerald Planet has been translated into three languages and attracted public acclaim and that of his academic peers. The book formed the basis of a major three-part BBC Two television series, How to Grow a Planet , [40] for which Beerling acted as the Scientific Consultant. Enhanced public awareness of plant science followed, with the series attracting average viewing figures of 1.7 million per episode. The book was reprinted by Oxford University Press in 2009 with a foreword written by Iain Stewart, the presenter of How to Grow a Planet. Beerling is also the author of an advanced technical book Vegetation and the terrestrial carbon cycle: the first 400 million years. [41]
Beerling is interested in the history of science and publishes occasional scholarly articles on this theme. These have included an invited commentary entitled 'Gas valves, forests and global change: a commentary on Paul Gordon Jarvis classic 1976 paper [42] written to celebrate the 350th anniversary of the journal Philosophical Transactions of the Royal Society , [34] and the discovery that Isaac Newton's interest in botany extended to thinking about how water moves from roots to leaves and into the atmosphere over 200 years before botanists got round to explaining it. [3] [43] His discovery was widely reported including in Scientific American [44] and Science [45] which coined the memorable 'Newton was no sap' strap line. In 2010, he wrote a piece for Nature discussing theoretical analyses revealing how plant investment in the architecture of leaf veins can be shuffled for different conditions, minimising the construction costs associated with supplying water to leaves. [46] He placed these findings in the context of the pioneering English plant physiologist Stephen Hales's book Vegetable Staticks published in 1727. Hales observed that plants lose water by "perspiration" and then went one better by conducting experiments to quantify the process.
Beerling's research has been funded by the Natural Environment Research Council (NERC), [47] the Department for International Development (DFID), [48] the Economic and Social Research Council (ESRC), [48] The Royal Society, [49] and The Leverhulme Trust. [10] In 2012 he was awarded a prestigious European Research Council Advanced Investigator Grant to research 'Carbon dioxide regulation of Earth's ecological weathering engine: from microorganisms to ecosystems'. [50]
In 2015, he was awarded £10 million for establishing a Leverhulme Centre for Climate change mitigation which hopes to revolutionise approaches to climate change mitigation and transform the evidence base needed to alter land management options for mitigating climate change and promoting food security, whilst safeguarding natural resources. The vision is to develop and assess the role of enhanced rock weathering as a means of safely removing large amounts of the greenhouse gas carbon dioxide (CO₂) from the atmosphere to cool the planet, while also mitigating ocean acidification. [51]
As of 2015 [update] the plan is to deliver these aims through Earth system modelling, lab-based controlled environment experimental investigations and large-scale field studies, embedded with social science analyses of sustainability and public engagement. Beerling, Director of the Leverhulme Centre for Climate Change Mitigation at the University of Sheffield, said:
I am delighted that the Leverhulme Trust is providing substantial long-term investment in our pioneering Leverhulme Centre at the University of Sheffield. It couldn't be more timely and represents a huge vote of confidence for the outstanding team of scientists and social scientists involved from Sheffield and elsewhere. [52] [53]
Beerling added:
The ambition of our new interdisciplinary Leverhulme Centre is to deliver a step-change in the development of feasible, scalable, atmospheric CO₂ removal options and avert ocean acidification. We will objectively develop the science, sustainability and ethics necessary for harnessing the photosynthate energy of plants to accelerate the breakdown of silicate rocks applied to agroecosystems and ultimately sequester carbon on the sea floor. In effect, the approach uses natural reactions that have been stabilising climate for millions of years to safely remove the greenhouse gas carbon dioxide from the atmosphere." [52] [53]
On 29 November 2018, the BBC's Science Editor, David Shukman, reported on progress of the Centre on the National BBC news and in an accompanying BBC New online article entitled Climate change: Can 12 billion tonnes of carbon be sucked from the air? [54]
Beerling was awarded a Philip Leverhulme Prize in Earth sciences for outstanding contributions to palaeobotany and palaeoclimatology in 2001.[ citation needed ] He was elected the 2008/9 Edward P Bass Distinguished Visiting Environmental Scholar at the Yale Institute for Biosphere Science, Yale University. [55] The Edward P. Bass Distinguished Visiting Environmental Scholars Program was created in July 2002 with a private donation by Edward P. Bass to the Yale Institute for Biospheric Studies (YIBS), which he also established in 1991 with a gift to Yale University. In 2009, Beerling was awarded a Royal Society Wolfson Research Merit Award (2009–2014), a scheme funded by the Wolfson Foundation and Department for Business, Innovation and Skills for recruiting or retaining respected scientists of outstanding achievement and potential to the UK. [56] Beerling was elected a Fellow of the Royal Society (FRS) in 2014, his certificate of election reads:
David Beerling is one of the world's leading botanists widely respected internationally for his major contributions to understanding the co-evolution of plants and the environment over the past half billion years. He is distinguished for pioneering cross-disciplinary research programmes that combine palaeobotanical, experimental and theoretical modelling approaches. His research demonstrates how experimental and fossil evidence can be blended to enhance our understanding of plant evolution and its feedbacks on past environments. His integration of ecosystem processes into a broad geosciences framework established the importance of the terrestrial biosphere in Earth's climate history. [6]
Beerling was elected a Fellow of the Learned Society of Wales in 2022. [57]
Beerling's life and career have been profiled in Steel Science, [58] the online magazine of Science Communication at the University of Sheffield.
Beerling is the son of Johnny Beerling [1] former Controller of BBC Radio 1 and Carol Ann Beerling. Beerling married Juliette Fraser in 2011, they have one son Joshua. [1]
The Eocene Epoch is a geological epoch that lasted from about 56 to 33.9 million years ago (Ma). It is the second epoch of the Paleogene Period in the modern Cenozoic Era. The name Eocene comes from the Ancient Greek ἠώς and καινός and refers to the "dawn" of modern ('new') fauna that appeared during the epoch.
The carbon cycle is that part of the biogeochemical cycle by which carbon is exchanged among the biosphere, pedosphere, geosphere, hydrosphere, and atmosphere of Earth. Other major biogeochemical cycles include the nitrogen cycle and the water cycle. Carbon is the main component of biological compounds as well as a major component of many minerals such as limestone. The carbon cycle comprises a sequence of events that are key to making Earth capable of sustaining life. It describes the movement of carbon as it is recycled and reused throughout the biosphere, as well as long-term processes of carbon sequestration (storage) to and release from carbon sinks.
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Earth's climate system is a complex system with five interacting components: the atmosphere (air), the hydrosphere (water), the cryosphere, the lithosphere and the biosphere. Climate is the statistical characterization of the climate system, representing the average weather, typically over a period of 30 years, and is determined by a combination of processes in the climate system, such as ocean currents and wind patterns. Circulation in the atmosphere and oceans is primarily driven by solar radiation and transports heat from the tropical regions to regions that receive less energy from the Sun. The water cycle also moves energy throughout the climate system. In addition, different chemical elements, necessary for life, are constantly recycled between the different components.
In Earth's atmosphere, carbon dioxide is a trace gas that plays an integral part in the greenhouse effect, carbon cycle, photosynthesis and oceanic carbon cycle. It is one of several greenhouse gases in the atmosphere of Earth. The current global average concentration of CO2 in the atmosphere is 421 ppm as of May 2022 (0.04%). This is an increase of 50% since the start of the Industrial Revolution, up from 280 ppm during the 10,000 years prior to the mid-18th century. The increase is due to human activity. Burning fossil fuels is the main cause of these increased CO2 concentrations and also the main cause of climate change. Other large anthropogenic sources include cement production, deforestation, and biomass burning.
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Philippe Ciais is a researcher of the Laboratoire des Sciences du Climat et de l'Environnement (LSCE), the climate change research unit of the Institut Pierre Simon Laplace (IPSL). He is a physicist working on the global carbon cycle of planet Earth, climate change, ecology and geosciences.
Nadine Unger is a Professor of Atmospheric Chemistry at the University of Exeter. She has studied the role of human activities and forests on the Earth's climate.
This is an article of notable issues relating to the terrestrial environment of Earth in 2022. They relate to environmental events such as natural disasters, environmental sciences such as ecology and geoscience with a known relevance to contemporary influence of humanity on Earth, environmental law, conservation, environmentalism with major worldwide impact and environmental issues.
Oliver Lawrence Phillips, is a British ecologist who specializes in tropical forests and is currently Professor of Tropical Ecology in the School of Geography at the University of Leeds. He is noted for his work coordinating large-scale, collaborative research projects that study how humans have changed the world's tropical forests, and the implications for climate change.
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