Thursday 4 March 2021

Prigogine Award 2021 to be presented alongside the 2022 Award

Prigogine MedalThe Prigogine Medal Ceremony for the presentation of the 2020 and 2021 awards were due to take place during the Air Pollution 2021 conference. However, the ceremonies were postponed to 2022 due to COVID-19

The Prigogine Award was established by the University of Siena and the Wessex Institute of Technology in 2004 to honour the memory of Professor Ilya Prigogine, Nobel Prize Winner for Chemistry.

Ilya Prigogine

Ilya Prigogine was born in Moscow in 1917 and obtained his undergraduate and graduate education in chemistry at the Free University in Brussels. He was awarded the Nobel Prize for his contribution to non-equilibrium thermodynamics, particularly the theory of dissipative structures. The main theme of his scientific work was the role of time in the physical sciences and biology. He contributed significantly to the understanding of irreversible processes, particularly in systems far from equilibrium. The results of his work have had profound consequences for understanding biological and ecological systems.

Prigogine’s ideas established the basis for ecological systems research. The Prigogine Medal to honour his memory is awarded annually to a leading scientist in the field of ecological systems. All recipients have been deeply influenced by the work of Prigogine.

Previous Prigogine Laureates:

2004 Sven Jorgensen, Denmark
2005 Enzo Tiezzi, Italy
2006 Bernard Patten, USA
2007 Robert Ulanowicz, USA
2008 Ioannis Antoniou, Greece
2009 Emilio del Giudice, Italy
2010 Felix Müller, Germany
2011 Larissa Brizhik, Ukraine
2012 Gerald Pollack, USA
2013 Vladimir Voeikov, Russia
2014 Mae-wan Ho, UK
2015 Bai-Lian Larry Li, USA
2016 Brian Fath, USA
2017 João Carlos Marques, Portugal
2018 Stuart Kauffman, USA
2019 Luc Montagnier, Switzerland
2020 Diederik Aerts, Belgium (to be awarded at the 2022 ceremony)

The 2021 Medal will be awarded to Simone Bastianoni, University of Siena, Italy (to be awarded at the 2022 ceremony).


Diederik AertsSimone Bastianoni

After completing classical high school studies, Simone Bastianoni received his master degree in Electronic Engineering at the University of Padova (1990) and then entered the PhD program in Chemical Sciences at the University of Perugia, Italy. During this period, he was visiting scholar at the University of Florida (in 1993) under the supervision of prof. H.T. Odum. He wrote a dissertation on the Development of Novel Thermodynamic Indicators for the Investigation of Ecological Systems under the supervision of Prof. Enzo Tiezzi. He obtained his PhD degree in 1995.

After a career at the University of Siena working in Prof. Tiezzi’s group (with a period as visiting scientist at the Royal Danish School of Pharmacy with S.E. Jørgensen, in 1999), Prof. Bastianoni has been Co-director of the Ecodynamics Group, together with Prof. Nadia Marchettini, since Prof. Tiezzi’s death in 2010. This transdisciplinary group includes chemists, economists, biologists, environmental scientists, architects and engineers (www.ecodynamicsgroup.unisi.it). He is currently full professor of Environmental Chemistry, Chair of the PhD School in Environmental, Geological and Polar Sciences and Provost for Sustainability at the University of Siena.

Prof. Bastianoni has 30 years of experience in investigating sustainability indicators, adopting a holistic view, common to thermodynamics and ecology, including the evaluation of eMergy, eXergy, Ecological Footprint, Life Cycle Assessment (LCA), and greenhouse gases balance. He has identified the relationship between emergy and exergy as a key indicator for understanding the degree of organization of ecosystems and then enlarged this understanding to an input-state-output view of both ecosystems and human ones with applications to sustainability. He has also developed, with other colleagues at the University of Siena. a method for a fast estimation of the greenhouse gases emissions attributed according to a consumer responsibility and a 3D view of the Ecological Footprint that discriminates flows and stocks.

Prof. Bastianoni is a past President of the Emergy Society, Member of the Standard Committee of the Global Footprint Network and Member of the Scientific Board of the International Society of Ecological Modelling. After directing the project that has led the province of Siena to be the first territory of the world to be certified for its greenhouse gases balance, he is now President of the Siena Alliance for Carbon Neutrality (www.carbonneutralsiena.it).

He has published more than 200 papers, with an H-index of 46 (Google Scholar). He is also co-author of several monographs, including:

  • Jørgensen S.E., Fath B.D., Nielsen S.N., Pulselli F.M., Fiscus D.A., Bastianoni S., 2015. Flourishing within limits to growth - Following nature’s way, Routledge, Padstow, UK, 288 pp.
  • Pulselli F.M., Bastianoni S., Marchettini N., Tiezzi E., 2008. The road to sustainability, WIT Press, Southampton, UK; 197 pp.

In 2004 he received the first Prigogine Junior Medal.


Special Prigogine Lecture
on

A Sustainability Viewpoint for a Post Covid-19 Pandemic Society

to be delivered by Professor Simone Bastianoni
at the University of Santiago de Compostela, Spain,
on Wednesday 1st September 2021

A few years ago we published a paper in which we showed a “functional” way of representing sustainability. In reality, it shows the cause-effect relationships between the environmental, social and economic spheres. The environment forms the basis of the system on which man as a species and like all other species is founded and lives. Human society is the core of our interest, and for which we aim at sustainability: nature without humans would go on quite well. The economy represents the "tip of the iceberg" of human society, its productive expression, its "useful output", the expression of how social organization uses resources to make money. At a time when the environmental and social aspects have become equally urgent and with very rapid and equal response times in the three spheres, it is even more important to understand the mechanisms that can lead us out of contradictions and into a more livable world.

The covid-19 pandemic has shown the cause-effect dynamics: a wrong use by humans of the environment (contact with wild animals that should have been be left alone) has triggered a real environmental crisis, i.e. spillover effect. The environmental crisis quickly became a social crisis because the pandemic spread everywhere and caused the need for lockdowns: being "social" suddenly has become a problem. This caused the economic crisis: without a functioning society, production becomes much more difficult. Our interpretation of sustainability in terms of cause-effect relationships already had this type of prediction.

The environment is also recognized as the most important risk factor for the economy also by the World Economic Forum 2020, according to which climatic change, overuse of resources, loss of biodiversity, viruses or new threats to agricultural production are most likely to produce economic crises. Therefore policies that focus only on the economic side, thinking or hoping that the feedback on societies and on the environment will be positive, will turn out to be a hoax. It was probably a model that could fit in an “empty world”, in which the environment could be considered abundant and substantially unchangeable by human actions, not in a 7 billion inhabitants Anthropocene.

The answer is in a model that does not involve a trade-off between good economic performance, good social cohesion and a simply "clean" environment. It envisages managing at the same time the environmental, social and economic aspects as a whole, with a legislative system that recognizes this whole and regulates human actions both towards the economy and towards the environment, to be recognized as an integral part of the system of support of humankind.

In this model there is no room for feedback that is harmful: what comes "back" from the economy and society must be additional nourishment for the environment, reinforcement, not "pollution". The example of plastic in seas and oceans in this sense is striking and despite the fact that scientists have reported this phenomenon for decades, today those who eat fish also eat plastic. Like those who eat meat and vegetables very often also eat antibiotics and pesticides, respectively.

In exiting the COVID emergency we must keep this dynamic in mind. If the solution to get out of the obvious economic crisis is simply to "increase consumption" we will face even greater disasters. Increasing consumption will imply an escalation in environmental stress and therefore a further loss in the quality of life of people, in addition to an intensification in (as already mentioned by the WEF) also economic risks due to environmental problems. The priority of governments must then be the use of the enormous financial resources, made available also by central banks, for the restructuring of the economy together with its physical and social foundations.

Starting from the observation of humanity, as a dissipative structure, is bound to consume energy and resources, our model indicates a precise path, which is also a path of great human and technological development.


For further information about the Prigogine Awards, please contact:

Prigogine Award
Wessex Institute
Ashurst Lodge, Ashurst
Southampton
SO40 7AA, UK

Tel: +44 (0) 238 029 3223

Email: wit@wessex.ac.uk


See the following Web pages for details of the recent Prigogine Awards:

Further details of all Prigogine Awards can be found on our dedicated page: Prigogine Award

Tuesday 2 March 2021

Prigogine Award 2020 to be presented alongside the 2021 and 2022 Awards

Prigogine MedalThe Prigogine Medal 2020 Award Ceremony was due to take place during the Air Pollution 2020 conference. However, the ceremony has been postponed to 2022 due to COVID-19 and will now take along with the presentation of the 2021 Award and 2022 Award.

The Prigogine Medal was established by the University of Siena and the Wessex Institute of Technology in 2004 to honour the memory of Professor Ilya Prigogine, Nobel Prize Winner for Chemistry

Ilya Prigogine

Ilya Prigogine was born in Moscow in 1917 and obtained his undergraduate and graduate education in chemistry at the Free University in Brussels. He was awarded the Nobel Prize for his contribution to non-equilibrium thermodynamics, particularly the theory of dissipative structures. The main theme of his scientific work was the role of time in the physical sciences and biology. He contributed significantly to the understanding of irreversible processes, particularly in systems far from equilibrium. The results of his work have had profound consequences for understanding biological and ecological systems.

Prigogine’s ideas established the basis for ecological systems research. The Prigogine Medal to honour his memory is awarded annually to a leading scientist in the field of ecological systems. All recipients have been deeply influenced by the work of Prigogine.

Previous Prigogine Laureates:

2004 Sven Jorgensen, Denmark
2005 Enzo Tiezzi, Italy
2006 Bernard Patten, USA
2007 Robert Ulanowicz, USA
2008 Ioannis Antoniou, Greece
2009 Emilio del Giudice, Italy
2010 Felix Müller, Germany
2011 Larissa Brizhik, Ukraine
2012 Gerald Pollack, USA
2013 Vladimir Voeikov, Russia
2014 Mae-wan Ho, UK
2015 Bai-Lian Larry Li, USA
2016 Brian Fath, USA
2017 João Carlos Marques, Portugal
2018 Stuart Kauffman, USA
2019 Luc Montagnier, Switzerland

The 2020 Medal will be awarded to Professor Diederik Aerts, Brussels Free University, Belgium (to be awarded at the 2022 ceremony).


Diederik AertsDiederik Aerts

Professor Diederik Aerts graduated with an MSc in Mathematical Physics and holds a PhD in Theoretical Physics from Brussels Free University. For his doctoral research, he worked with Constantin Piron within the so-called ‘Geneva School on the Foundations of Physics’, on the ‘quantum axiomatic description of composite entities’, proving among other things the ‘impossibility of standard quantum theory to model systems of separated entities’.

For his postdoc, Professor Aerts worked at the Belgian National Fund for Scientific Research, where he was also a tenured researcher, and he then became a professor at Brussels Free University (VUB). There, he was the director of the Center Leo Apostel of Interdisciplinary Studies, before becoming emeritus a year ago. He is Editor-in-Chief of the Springer Nature journal ‘Foundations of Science’ and a board member of the Worldviews group, founded by the late philosopher Leo Apostel. He is also president of the Centre for Quantum Social and Cognitive Science (IQSCS) at Leicester University (UK) and a Fellow of the College of the International Institute for Advanced Studies in Systems Research and Cybernetics (IIAS). He was the scientific and artistic coordinator of the ‘Einstein meets Magritte’ conference, at the VUB, where some of the world’s leading scientists and artists gathered to reflect on science, nature, human action and society. This was followed up by two international symposia co-organized with his collaborators and students, ‘Times of Entanglement’ at the World-Exhibition in Shanghai and ‘Worlds of Entanglement’ at the VUB.

Professor Aerts is considered to be one of the pioneers of the research domain called ‘Quantum Cognition’, where quantum structures are used to model aspects of human cognition and decision, a domain in which he is still actively engaged with his group of collaborators and PhD students. Starting from his reflection in the field of quantum cognition, Professor Aerts also formulated a new interpretation of quantum theory, called the ‘conceptuality interpretation’, where quantum entities are considered to be concepts (meaning entities) instead of objects. With his group, he is currently elaborating this challenging approach in all its possible facets and fields of inquiry, as it appears to be able to elucidate fundamental aspects of quantum theory, such as uncertainty, indistinguishability, entanglement and superposition, which have not yet found a satisfactory explanation in existing quantum interpretations.

To find out more about Professor Aerts please view his full CV here: Diederik Aerts CV


Special Prigogine Lecture
on

A Quantum Quest. From operational quantum axiomatics to quantum conceptuality, or how to unveil meaning in reality

to be delivered by Professor Diederik Aerts
at the University of Santiago de Compostela, Spain,
on Wednesday 1st September 2021

Highlights of his research are outlined leading to the formulation of a new interpretation of quantum mechanics, called the ‘conceptuality interpretation’. In this new thought-provoking interpretation quantum entities are considered to be concepts instead of objects and fundamental quantum phenomena, such as Heisenberg uncertainty, indistinguishability, entanglement and superposition, which cannot be addressed in a satisfactory way in the existing interpretations, find a very natural explanation. The interpretation also provides interesting insights as regards the possible nature of the world in which we live and evolve.

The full lecture abstract can be found here: Special Prigogine Lecture - Diederik Aerts


For further information about the Prigogine Awards, please contact:

Prigogine Award
Wessex Institute
Ashurst Lodge, Ashurst
Southampton
SO40 7AA, UK

Tel: +44 (0) 238 029 3223

Email: wit@wessex.ac.uk


See the following Web pages for details of the recent Prigogine Awards:

Further details of all Prigogine Awards can be found on our dedicated page: Prigogine Award

Monday 14 October 2019

Prigogine Award 2019 Ceremony

The Prigogine Medal 2019 Award Ceremony took place at the Polytechnic University of Valencia on Wednesday 2nd October, during the second day of the 13th International Conference on Urban Regeneration and Sustainability (Sustainable City 2019).

The Prigogine Medal was established by the University of Siena and the Wessex Institute of Technology in 2004 to honour the memory of Professor Ilya Prigogine, Nobel Prize Winner for Chemistry

ILYA PRIGOGINE
Ilya Prigogine was born in Moscow in 1917, and obtained his undergraduate and graduate education in chemistry at the Free University in Brussels. He was awarded the Nobel Prize for his contribution to non-equilibrium thermodynamics, particularly the theory of dissipative structures. The main theme of his scientific work was the role of time in the physical sciences and biology. He contributed significantly to the understanding of irreversible processes, particularly in systems far from equilibrium. The results of his work have had profound consequences for understanding biological and ecological systems.

Prigogine’s ideas established the basis for ecological systems research. The Prigogine Medal to honour his memory is awarded annually to a leading scientist in the field of ecological systems. All recipients have been deeply influenced by the work of Prigogine.

Previous Prigogine Laureates:
2004 Sven Jorgensen, Denmark
2005 Enzo Tiezzi, Italy
2006 Bernard Patten, USA
2007 Robert Ulanowicz, USA
2008 Ioannis Antoniou, Greece
2009 Emilio del Giudice, Italy
2010 Felix Müller, Germany
2011 Larissa Brizhik, Ukraine
2012 Gerald Pollack, USA
2013 Vladimir Voeikov, Russia
2014 Mae-wan Ho, UK
2015 Bai-Lian Larry Li, USA
2016 Brian Fath, USA
2017 João Carlos Marques, Portugal
2018 Stuart Kauffman, USA

The 2019 Medal was awarded to Professor Luc Montagnier, 2008 Nobel Prize Winner for Physiology and Medicine.

A press conference was held prior to the event and was well attended by the Spanish Press. See links below for more:
La Vanguardia - The Nobel Luc Montagnier: "The scientific basis of homeopathy is ignored because it silences what bothers the economy"
Levante - The AIDS virus discoverer defends homeopathy in Valencia
Las Provincias - Luc Montagnier collects the Prigogine Medal

National newspapers:
La Razon - Nobel Prize Montagnier: “Many young people are not aware of the risk of AIDS”
El Mundo - A Nobel champion of homeopathy receives a medal at the Polytechnic University of Valencia

Polytechnic University of Valencia news channel:
Nobel laureate Luc Montagnier at the UPV (YouTube)

Luc MontagnierLUC MONTAGNIER
Professor Luc Montagnier graduated in Medicine as well as in Biological Sciences at the University of Paris. At the age of 23, he became an Assistant to a Professor there.
After a fruitful post-doctoral stay at two British laboratories, he spent most of his career at two renowned French institutions, namely the Institut Curie and the Institut Pasteur in Paris. At the Institut Pasteur, where he spent almost 30 years, he founded the Viral Oncology Research Unit within the Department of Virology. His focus was cancer viruses, mainly the oncogenic retroviruses, and the biochemical aspects of interferon and malignant transformation, including membrane changes in relation to the growth in soft agar, for which he contributed to the revelation of a new property of cultured malignant cells.

In 1983, Montagnier led the team which first isolated the Human Immunodeficiency Virus (HIV1) and brought the first evidence that this virus was the causative agent of AIDS. In 1985 he isolated the second AIDS virus (HIV2) from West African patients.

Montagnier’s Laboratory was also the first to show that a large percentage of the white blood cells in HIV infected patients were prone to dying by apoptosis, a process of programmed cell death and to attribute its origin to the oxidative stress occurring in the patients, possibly associated with co-infections.

His current work is in the diagnosis and treatment of microbial and viral factors associated with cancers, neurodegenerative and articular diseases, using innovative technologies. As a strong advocate of preventive medicine, he is especially concerned with prolonging the active life of ageing people.

Beyond Montagnier’s scientific interest is his deep involvement in helping developing countries to acquire knowledge of and access to modern and preventive medicine. As President of the World Foundation for Aids Research and Prevention, he has co-founded two Centres for the prevention, treatment, research and diagnosis of AIDS patients in Ivory Coast and Cameroon.

Ten years ago, Professor Montagnier co-founded CHRONIMED, an international group of physicians treating chronic diseases including, but not limited to, Autism spectrum diseases, Alzheimers, Lyme, Multiple Scleroses and Cancer.

Various treatment modalities are used for these multi-factorial conditions. Most of these treatments were developed upon the research of Montagnier and his Chronimed associates.

At its premises in Geneva, Switzerland, Fondation Luc Montagnier, together with its associated Chronimed clinicians, carries out cutting edge research and treatments, bringing in international investigators in various fields.

Luc Montagnier has been awarded many Prizes, including Prizes Rosen (1971), Gallien (1985), Korber (1986), Jeantet (1986), the Lasker Prize in Medicine (1986), the Gairdner Prize (1987), Santé Prize (1987), Japan Prize (1988), King Faisal Prize (1993), Amsterdam Foundation Prize (1994), Warren Alpert Prize (1998), Prince of Asturias Award (2000) the induction to the National Invention Hall of Fame (2004). He is Commandeur de l'Ordre National du Mérite (1986) and Grand Officier of the Legion of Honour (2009).

In 2008, he was awarded the Nobel Prize for Physiology and Medicine, for his discovery of HIV, together with Françoise Barre-Sinoussi.

He is the author or co-author of 350 scientific publications and of more than 150 patents.

SPECIAL PRIGOGINE LECTURE
on
New Paradigm in Biology
delivered by Professor Luc Montagnier
at the Polytechnic University of Valencia, Spain, on Wednesday 2nd October 2019.

Despite impressive progress in molecular biology, major problems remain unsolved in this complex science, and their solution, which is vital for our future, may require the contribution of other domains such as the quantum field theory of physics.

For further information about the Prigogine Awards, please contact:
Prigogine Award
Wessex Institute
Ashurst Lodge, Ashurst
Southampton
SO40 7AA, UK
Tel: +44 (0) 238 029 3223
Email: wit@wessex.ac.uk

See the following Web pages for details of recent Prigogine Awards:
Further details of all Prigogine Awards can be found on our dedicated page: Prigogine Award

View photos of the ceremony

Friday 7 September 2018

Prigogine Award 2018 Ceremony

The 2018 Prigogine Gold Medal was awarded to Professor Stuart Kauffman, University of Pennsylvania, USA.

The Prigogine Gold Medal 2018 Award Ceremony took place at the University of Siena on Tuesday 4th September 2018, during the first day of the 10th International Conference on Sustainable Development and Planning (SDP).

The Prigogine Medal was established by the University of Siena and the Wessex Institute of Technology in 2004 to honour the memory of Professor Ilya Prigogine, Nobel Prize Winner for Chemistry.

ILYA PRIGOGINE
Ilya Prigogine was born in Moscow in 1917, and obtained his undergraduate and graduate education in chemistry at the Free University in Brussels. He was awarded the Nobel Prize for his contribution to non-equilibrium thermodynamics, particularly the theory of dissipative structures. The main theme of his scientific work was the role of time in the physical sciences and biology. He contributed significantly to the understanding of irreversible processes, particularly in systems far from equilibrium. The results of his work have had profound consequences for understanding biological and ecological systems.
Prigogine’s ideas established the basis for ecological systems research. The Prigogine Medal to honour his memory is awarded annually to a leading scientist in the field of ecological systems. All recipients have been deeply influenced by the work of Prigogine.

Previous Prigogine Laureates:
2004 Sven Jorgensen, Denmark
2005 Enzo Tiezzi, Italy
2006 Bernard Patten, USA
2007 Robert Ulanowicz, USA
2008 Ioannis Antoniou, Greece
2009 Emilio del Giudice, Italy
2010 Felix Müller, Germany
2011 Larissa Brizhik, Ukraine
2012 Gerald Pollack, USA
2013 Vladimir Voeikov, Russia
2014 Mae-wan Ho, UK
2015 Bai-Lian Larry Li, USA
2016 Brian Fath, USA
2017 João Carlos Marques, Portugal

The 2018 Medal was awarded to Professor Stuart Kauffman, Emeritus Professor of Biochemistry at the University of Pennsylvania and affiliate faculty at the Institute for Systems Biology.

STUART KAUFFMANStuart Kauffman
Professor Stuart Kauffman is an American medical doctor, theoretical biologist, and complex systems researcher who studies the origin of life on Earth. He was a professor the Universities of Chicago, Pennsylvania and Calgary. He is currently Emeritus Professor of Biochemistry at the University of Pennsylvania and affiliate faculty at the Institute for Systems Biology. He has a number of awards including a MacArthur Fellowship and a Wiener Medal.

He is best known for arguing that the complexity of biological systems and organisms might result as much from self-organisation and far-from-equilibrium dynamics as from Darwinian natural selection as discussed in his book Origins of Order (1993). In 1967 and 1969 Kauffman used random boolean networks to investigate generic self-organising properties of gene regulatory networks. Using these models, he proposed that cell types are dynamical attractors in gene regulatory networks and that cell differentiation can be understood as transitions between attractors. Recent evidence suggests that cell types in humans and other organisms are attractors. In 1971 he suggested that a zygote may not be able to access all the cell type attractors in its gene regulatory network during development and that some of the developmentally inaccessible cell types might be cancer cell types. This suggested the possibility of "cancer differentiation therapy". He also proposed the self-organised emergence of collectively autocatalytic sets of polymers, specifically peptides, for the origin of molecular reproduction, which have found experimental support.

SPECIAL PRIGOGINE LECTURE
on
A World Beyond Physics: The Emergence and Evolution of Life
delivered by Professor Stuart Kauffman at the University of Siena, Italy, Spain

The emergence and evolution of life is based on physics but is beyond physics. Evolution is an historical process arising from the non-ergodicity of the universe above the level of atoms. Most complex things will never exist. Human hearts exist. Prebiotic chemistry saw the evolution of many organic molecules in complex reaction networks, and the formation of low energy structures such as membranes. Theory and experiments suggest that from this, the spontaneous emergence of self reproducing molecular systems could arise and evolve. Such “collectively autocatalytic systems” cyclically link non-equilibrium processes whose constrained release of energy constitutes “work” to construct the same constraints on those non-equilibrium processes. Cells yoke a set of non-equilibrium processes and constraints on the energy released as work to build their own constraints and reproduce.

Such systems are living, and can propagate their organization with heritable variations, so can be subject to natural selection. In this evolution, these proto-organisms emerge unprestatably, and afford novel niches enabling, not causing, further types of proto-organisms to emerge. With this, unprestatable new functions arise. The ever-changing phase space of evolution includes these functionalities. Since we cannot prestate these ever new functionalities, we can write no laws of motion for this evolution, which is therefor entailed by no laws at all, and thus not reducible to physics. Beyond entailing law, the evolving biosphere literally constructs itself and is the most complex system we know in the universe.

For further information about the Prigogine Awards, please contact:

Wessex Institute of Technology
Ashurst Lodge, Ashurst
Southampton
SO40 7AA, UK
Tel: +44 (0) 238 029 3223
Fax: +44 (0) 238 029 2853
Email: wit@wessex.ac.uk

See the following Web pages for details of recent Prigogine Awards:
Further details of all Prigogine Awards can be found on our dedicated page: Prigogine Award

Wednesday 18 January 2017

Prigogine Award 2017 Ceremony

The Prigogine Gold Medal 2017 Award Ceremony will take place at the University of Seville on Wednesday 20th September 2017, on the occasion of the 12th International Conference on Urban Regeneration and Sustainability (The Sustainable City) and the 7th International Conference on Energy and Sustainability.
The Prigogine Medal was established in 2004 by the University of Siena and the Wessex Institute of Technology to honour the memory of Professor Ilya Prigogine, Nobel Prize Winner for Chemistry.

The 2017 Medal will be awarded to Professor João Carlos Marques, University of Coimbra, Portugal. 

JOÃO CARLOS MARQUES
Prigogine2017 JCM Photo
Professor João Carlos Marques
The recipient of the 2017 Award will be Professor João Carlos Marques of the University of Coimbra in Portugal. He graduated from the University of Lisbon and received his PhD in Ecology from the University of Coimbra.
His core areas of research are marine and estuarine ecology, as well as aquatic ecosystems in general as well as their interference with territorial ecosystems, focusing on the study of ecological processes and their characterisation, quantification and modelling.
Prof Marques is author or co-author of more than 250 scientific papers in international Journals, six books, and has contributed to many edited volumes.He has coordinated and participated in numerous research projects funded by Portuguese agencies and the European Union. He also played a key role in creating new research information at the national level.

He has been Director of important centres and institutions at the national level, as well as at his University. He is Editor in Chief of the International Journal on Ecological Indicators, as well as a member of the Editorial Board of other publications.

ILYA PRIGOGINE
Ilya Prigogine was born in Moscow in 1917, and obtained his undergraduate and graduate education in chemistry at the Free University in Brussels. He was awarded the Nobel Prize for his contribution to non-equilibrium thermodynamics, particularly the theory of dissipative structures. The main theme of his scientific work was the role of time in the physical sciences and biology. He contributed significantly to the understanding of irreversible processes, particularly in systems far from equilibrium. The results of his work have had profound consequences for understanding biological and ecological systems.
Prigogine’s ideas established the basis for ecological systems research. The Prigogine Medal to honour his memory is awarded annually to a leading scientist in the field of ecological systems. All recipients have been deeply influenced by the work of Prigogine.
Previous Prigogine Laureates were:
2004 Sven Jorgensen, Denmark
2005 Enzo Tiezzi, Italy
2006 Bernard Patten, USA
2007 Robert Ulanowicz, USA
2008 Ioannis Antoniou, Greece
2009 Emilio del Giudice, Italy
2010 Felix Müller, Germany
2011 Larissa Brizhik, Ukraine
2012 Gerald Pollack, USA
2011 Larissa Brizhik, Ukraine
2013 Vladimir Voeikov, Russia
2014 Mae-wan Ho, UK
2015 Bai-Lian Larry Li, USA
2016 Brian Fath, USA

Monday 1 February 2016

Prigogine Award 2016 Ceremony

The Prigogine Gold Medal 2016 Award Ceremony will take place on Wednesday 13th July 2016 in Alicante.  This prestigious event is sponsored by the University of Alicante, on the occasion of the 11th International Conference on Urban Regeneration and Sustainability (The Sustainable City).
The Prigogine Medal was established in 2004 by the University of Siena and the Wessex Institute of Technology to honour the memory of Professor Ilya Prigogine, Nobel Prize Winner for Chemistry.
 The 2016 Medal is to be awarded to Brian Fath, Professor at Towson University, USA.
Prigogine 2016 Brian Fath photo
Prof Brian D. Fath
BRIAN FATH
Brian D. Fath is Professor in the Department of Biological Sciences at Towson University (Maryland, USA) and Research Scholar within the Advanced Systems Analysis Program at the International Institute for Applied Systems Analysis (Laxenburg, Austria).  His research is in the area of systems ecology and network analysis applied to the sustainability and resilience of socio-ecological systems.  His interests range from network analysis to ecosystem theory to urban metabolism to systems thinking and environmental philosophy. Dr. Fath has taught courses on ecological networks and modeling in many different locations around the world. He holds visiting faculty appointments at the School of Environment, Beijing Normal University and at the State Key Laboratory of Urban and Regional Ecology, Chinese Academy of Sciences both in Beijing, China.  He was also Fulbright Distinguished Chair at Parthenope University of Naples, Italy.

He has published numerous research papers, reports, and book chapters. He co-authored three books: He is Editor-in-Chief for the journal Ecological Modelling; President of the North American Chapter of International Society for Ecological Modelling and, among other appointments, he is a member and present Chair of Baltimore County Commission in Environmental Quality.
ILYA PRIGOGINE
Ilya Prigogine was born in Moscow in 1917, and obtained his undergraduate and graduate education in chemistry at the Free University in Brussels.  He was awarded the Nobel Prize for his contribution to non-equilibrium thermodynamics, particularly the theory of dissipative structures.  The main theme of his scientific work was the role of time in the physical sciences and biology.  He contributed significantly to the understanding of irreversible processes, particularly in systems far from equilibrium.  The results of his work have had profound consequences for understanding biological and ecological systems.
Prigogine’s ideas established the basis for ecological systems research.  The Prigogine Medal to honour his memory is awarded annually to a leading scientist in the field of ecological systems.  All recipients have been deeply influenced by the work of Prigogine.
Previous Prigogine Laureates were:
2004   Sven Jorgensen, Denmark                        
2005   Enzo Tiezzi, Italy                                     
2006   Bernard Patten, USA                                 
2007   Robert Ulanowicz, USA                             
2008   Ioannis Antoniou, Greece                          
2009   Emilio del Giudice, Italy                            
2010   Felix Müller, Germany
2011   Larissa Brizhik, Ukraine
2012   Gerald Pollack, USA
2013   Vladimir Voeikov, Russia
2014   Mae-wan Ho, UK
2015   Bai-Lian Larry Li, USA

Thursday 9 July 2015

Prigogine Award 2015 Ceremony

The 2015 Medal was awarded to Bai-Lian Larry Li, Professor at the University of California, USA.
B Larry Li is Professor of Ecology and Director of three research centres at the University of California, Riverside, ie the International Centre for Ecology and Sustainability, the International Centre for Arid Land Ecology, and the US Department of Agriculture – China Joint Research Centre for Agroecology and Sustainability.
B. Larry Li
Professor Li has a broad inter-disciplinary background and experience in mathematical, statistical and computational modelling applications in ecological studies. Professor Li is a Fellow of the Institute for Human Ecology, USA; Chair Professor of the Chinese Academy of Science, Honorary Professor of the Russian Academy of Sciences and Fellow of the American Association for the Advancement of Science, among other important recognitions.
He currently presides over the Eco-Summit Foundation and is a member of NSF Scientific Panels. He has been the founder and editor of the prestigious International Journal on Ecological Complexity and the Journal of Arid Land. He organised many symposia and courses with other institutions, including the Max-Planck and Santa Fe institutes.
Prof Li has worked on a wide variety of ecological projects including recent involvement in energetic and thermodynamic ecological systems and restoration of ecological patterns for formations and long-term ecological research in the USA and internationally.
He has published more than 200 refereed journal articles, and numerous conference papers, in addition to 30 book chapters and eight books or edited special issues.
Following these introductory remarks, Professor Mora Mas awarded the Medal to Professor Li and invited him to give his Prigogine lecture entitled “Towards an energetically and thermodynamically-sounded approach to ecological complexity, modelling and sustainability”.
B Larry Li started his inaugural address with the following introduction:
“Life is based on cycling of matter and consumption of energy. The spatial and temporal scales of these processes transcend from the micro-world, where living cells meet their energetic demand with nutrients diffusing through the cell wall, to the planetary scale, where continental vegetation cover and oceanic biota profoundly impact the global cycles of life essentials like water and carbon. On the basis of a holistic systems view and Prigogine and Haken’s theories, my research has been focusing on addressing the following key questions: How do biological and ecological systems self-organize? What are the origins and mechanisms of emergence of scaling from individual to landscape levels (especially on emergence of dynamic scaling)? And what are the physical bases of non-equilibrium biological and ecological systems? I use mathematical, statistical, and computational modelling approaches as a way of exploring and answering these questions. These modelling approaches help identify general principles and basic mechanisms governing emerging properties of biological and ecological systems at multiple temporal and spatial scales based on energetic, thermodynamic and information considerations and allow us to have better understanding and modelling of ecological complexity, services and sustainability.
“One of my earliest English papers entitled ‘Pansystems analysis: a new approach to ecosystem modelling’ was published in Ecological Modelling in 1986. In that paper, I proposed a new pansystems approach to study complex and strongly interacting dynamic processes in ecological system, ie the social-economic-natural complex ecosystems, and a rough framework of ecological complexity – modelling complex or large-scale ecosystems. This work, to large extent, reflected in part of my earlier views to apply Prigogine’s far-from equilibrium thoughts to ecological systems.
“In this lecture, I will start with re-examination of the classic logistic equation in population ecology, from the energy conservation law. We found that there exists a conservation of energy relationship comprising the terms of available resource and population density, jointly interpreted here as total available vital energy in a confined environment. We showed that this relationship determines a density-dependent functional form of relative population growth rate and consequently the parametric equations are in the form depending upon the population density, resource concentration, and time. Thus, the derived form of relative population growth rate is essentially a feedback type, ie updating parametric values for the corresponding population density. This resource dynamics-based feedback approach has been implemented for formulating variable carrying capacity in a confined environment. Particularly, at a constant resource replenishment rate, a density-dependent population growth equation similar to the classic logistic equation is derived, while one of the regulating factors of the underlying resource dynamics is that the resource consumption rate is directly proportional to the resource concentration.
“Secondly, I will talk about energetic and thermodynamic foundation of ecological systems. A fundamental but unanswered biological question asks how much energy, on average, Earth’s different life forms spend per unit mass per unit time to remain alive. Here, using the largest database to date, for 3006 species that includes most of the range of biological diversity on the planet – from bacteria to elephants, and algae to sapling trees – we show that metabolism displays a striking degree of homeostasis across all of life. We demonstrate that, despite the enormous biochemical, physiological, and ecological differences between the surveyed species that vary over 1020-fold in body mass, mean metabolic rates of major taxonomic groups displayed at physiological rest converge on a narrow range from 0.3 to 9 W kg-1. This 30-fold variation among life’s disparate forms represents a remarkably small range compared with the 4000 to 65000-fold difference between the mean metabolic rates of the smallest and largest organisms that would be observed if life as a whole conformed to universal quarter power or third-power allometric scaling laws. The observed broad convergence on a narrow range of basal metabolic rates suggests that organismal designs that fit in this physiological window have been favoured by natural selection across all of life’s major kingdoms, and that this range might therefore be considered as optimal for living matter as a whole.
“Thirdly, I will show how we can use this foundation to scaling up, from primary producers to primary consumers, to second consumers, and so on in ecological networks. This approach opens a new view to re-examine species diversity-stability-productivity relationships in ecological systems.
“Fourthly, I will examine the emergence of scaling properties and self-organisations in ecological systems, such as species-area curve, self-thinning law, etc. My talk will also include applications of this framework to study ecotone phase transitions, biological invasion, scaling from genomes to ecosystems and global change biology.
“Based on my own study and near 35 years working experience in this field, I have been so much inspired by Prof Ilya Prigogine’s works and his thoughts. I met him in person only once, in 1992 Chaos Conference at Texas A&M University, College Station, USA; I showed him how I used his theory: nonlinear Markov non-equilibrium thermodynamic stability theory to study ecological phase transitions and predict the tree-grass dynamics of savannah in southern Texas landscapes. I believe that his work and view will continue to inspire new generations of ecologists to study not only fundamental issues of ecology but also applied ecological problems in conservation biology, biological invasion, restoration ecology, ecological monitoring and assessment, global change, and sustainable development.”
Prof Li’s excellent presentation was followed with great interest by all participants. He demonstrates a command of many disciplines, such as mathematics, statistics, computational mechanics, in addition to biology and ecosystems. His address gave a comprehensive picture of the diverse ecosystems behaviour and the importance of understanding them to achieve sustainability.