Project acronym ChromatinTargets
Project Systematic in-vivo analysis of chromatin-associated targets in leukemia
Researcher (PI) Johannes Zuber
Host Institution (HI) FORSCHUNGSINSTITUT FUR MOLEKULARE PATHOLOGIE GESELLSCHAFT MBH
Call Details Starting Grant (StG), LS4, ERC-2013-StG
Summary Recent advances in genome sequencing illustrate the complexity, heterogeneity and plasticity of cancer genomes. In leukemia - a group of blood cancers affecting 300,000 new patients every year – we know over 100 driver mutations. This genetic complexity poses a daunting challenge for the development of targeted therapies and highlights the urgent need for evaluating them in combination. One gene class that has recently emerged as highly promising target space are chromatin regulators, which maintain aberrant cell fate programs in leukemia. The dependency on altered chromatin states is thought to provide great therapeutic opportunities, since epigenetic aberrations are reversible and controlled by a machinery that is amenable to drug modulation. However, the precise mechanisms underlying these dependencies and the most effective and safe targets to exploit them therapeutically remain unknown.
Here we propose an innovative approach combining genetically engineered leukemia mouse models and advanced in-vivo RNAi technologies to explore chromatin-associated vulnerabilities at an unprecedented level of depth. Following a first screen in MLL-AF9;Nras-driven AML, which led to the discovery of BRD4 as a promising therapeutic target, we aim to (1) construct a knockdown-validated shRNA library targeting 520 chromatin regulators and use it to comparatively probe chromatin-associated dependencies in diverse leukemia subtypes; (2) explore the mechanistic basis of response and resistance to suppression of BRD4 and new chromatin-associated targets; and (3) pioneer a system for multiplexed combinatorial RNAi screening and use it to identify synergies between established and new chromatin-associated targets. We envision that this ERC-funded project will generate a comprehensive functional-genetic dataset that will greatly complement ongoing genome and epigenome profiling studies and ultimately guide the development of targeted therapies for leukemia and, potentially, other cancers.
Summary
Recent advances in genome sequencing illustrate the complexity, heterogeneity and plasticity of cancer genomes. In leukemia - a group of blood cancers affecting 300,000 new patients every year – we know over 100 driver mutations. This genetic complexity poses a daunting challenge for the development of targeted therapies and highlights the urgent need for evaluating them in combination. One gene class that has recently emerged as highly promising target space are chromatin regulators, which maintain aberrant cell fate programs in leukemia. The dependency on altered chromatin states is thought to provide great therapeutic opportunities, since epigenetic aberrations are reversible and controlled by a machinery that is amenable to drug modulation. However, the precise mechanisms underlying these dependencies and the most effective and safe targets to exploit them therapeutically remain unknown.
Here we propose an innovative approach combining genetically engineered leukemia mouse models and advanced in-vivo RNAi technologies to explore chromatin-associated vulnerabilities at an unprecedented level of depth. Following a first screen in MLL-AF9;Nras-driven AML, which led to the discovery of BRD4 as a promising therapeutic target, we aim to (1) construct a knockdown-validated shRNA library targeting 520 chromatin regulators and use it to comparatively probe chromatin-associated dependencies in diverse leukemia subtypes; (2) explore the mechanistic basis of response and resistance to suppression of BRD4 and new chromatin-associated targets; and (3) pioneer a system for multiplexed combinatorial RNAi screening and use it to identify synergies between established and new chromatin-associated targets. We envision that this ERC-funded project will generate a comprehensive functional-genetic dataset that will greatly complement ongoing genome and epigenome profiling studies and ultimately guide the development of targeted therapies for leukemia and, potentially, other cancers.
Max ERC Funding
1 498 985 €
Duration
Start date: 2014-01-01, End date: 2018-12-31
Project acronym CombaTCancer
Project Rational combination therapies for metastatic cancer
Researcher (PI) Anna Obenauf
Host Institution (HI) FORSCHUNGSINSTITUT FUR MOLEKULARE PATHOLOGIE GESELLSCHAFT MBH
Call Details Starting Grant (StG), LS4, ERC-2017-STG
Summary Targeted therapy (TT) is frequently used to treat metastatic cancer. Although TT can achieve effective tumor control for several months, durable treatment responses are rare, due to emergence of aggressive, drug-resistant clones (RCs) with high metastatic competence. Tumor heterogeneity and plasticity result in multifaceted resistance mechanisms and targeting RCs poses a daunting challenge.
To better understand the clinical emergence of RCs, my work focuses on the poorly understood events during TT-induced tumor regression. We recently reported that during this phase drug-responsive cancer cells release a therapy-induced secretome, which remodels the tumor microenvironment (TME) and propagates disease relapse by promoting the survival of drug-sensitive cells and stimulating the outgrowth of RCs. Consequently, intervening with combination therapies during the tumor regression period has the potential to prevent the clinical emergence of RCs in the first place.
Here, we outline strategies to (1) understand how RCs emerge and (2) to leverage our findings on the TME remodeling for combination therapies. First, we will develop a novel and innovative parental clone-lookup method, that will allow us to identify and isolate treatment-naïve, parental clones (PCs) that gave rise to RCs. In functional experiments, we will assess (i) whether PCs were already resistant before or developed resistance during TT, (ii) whether PCs have a higher susceptibility to develop resistance than random clones, and (iii) the mechanistic basis for metastatic competence in different clones. Second, we will study the TT-induced TME remodeling, focusing on the effects on tumor vasculature and immune cells. We will utilize our results to target PCs and RCs by combining TT in the phase of tumor regression with other therapies, such as immunotherapies. Our study will provide new mechanistic insights into the biological processes during tumor regression and aims for novel therapeutic strategies.
Summary
Targeted therapy (TT) is frequently used to treat metastatic cancer. Although TT can achieve effective tumor control for several months, durable treatment responses are rare, due to emergence of aggressive, drug-resistant clones (RCs) with high metastatic competence. Tumor heterogeneity and plasticity result in multifaceted resistance mechanisms and targeting RCs poses a daunting challenge.
To better understand the clinical emergence of RCs, my work focuses on the poorly understood events during TT-induced tumor regression. We recently reported that during this phase drug-responsive cancer cells release a therapy-induced secretome, which remodels the tumor microenvironment (TME) and propagates disease relapse by promoting the survival of drug-sensitive cells and stimulating the outgrowth of RCs. Consequently, intervening with combination therapies during the tumor regression period has the potential to prevent the clinical emergence of RCs in the first place.
Here, we outline strategies to (1) understand how RCs emerge and (2) to leverage our findings on the TME remodeling for combination therapies. First, we will develop a novel and innovative parental clone-lookup method, that will allow us to identify and isolate treatment-naïve, parental clones (PCs) that gave rise to RCs. In functional experiments, we will assess (i) whether PCs were already resistant before or developed resistance during TT, (ii) whether PCs have a higher susceptibility to develop resistance than random clones, and (iii) the mechanistic basis for metastatic competence in different clones. Second, we will study the TT-induced TME remodeling, focusing on the effects on tumor vasculature and immune cells. We will utilize our results to target PCs and RCs by combining TT in the phase of tumor regression with other therapies, such as immunotherapies. Our study will provide new mechanistic insights into the biological processes during tumor regression and aims for novel therapeutic strategies.
Max ERC Funding
1 500 000 €
Duration
Start date: 2018-03-01, End date: 2023-02-28
Project acronym GEL-SYS
Project Smart HydroGEL SYStems – From Bioinspired Design to Soft Electronics and Machines
Researcher (PI) Martin KALTENBRUNNER
Host Institution (HI) UNIVERSITAT LINZ
Call Details Starting Grant (StG), PE8, ERC-2017-STG
Summary Hydrogels evolved as versatile building blocks of life – we all are in essence gel-embodied soft machines. Drawing inspiration from the diversity found in living creatures, GEL-SYS will develop a set of concepts, materials approaches and design rules for wide ranging classes of soft, hydrogel-based electronic, ionic and photonic devices in three core aims.
Aim (A) will pursue a high level of complexity in soft, yet tough biomimetic devices and machines by introducing nature-inspired instant strong bonds between hydrogels and antagonistic materials – from soft and elastic to hard and brittle. Building on these newly developed interfaces, aim (B) will pursue biocompatible hydrogel electronics with iontronic transducers and large area multimodal sensor arrays for a new class of medical tools and health monitors. Aim (C) will foster the current soft revolution of robotics with self-sensing, transparent grippers not occluding objects and workspace. A soft robotic visual system with hydrogel-based adaptive optical elements and ultraflexible photosensor arrays will allow robots to see while grasping. Autonomous operation will be a central question in soft systems, tackled with tough stretchable batteries and energy harvesting from mechanical motion on small and large scales with soft membranes. GEL-SYS will use our experience on soft, “imperceptible” electronics and devices. By fusing this technology platform with tough hydrogels - nature’s most pluripotent ingredient of soft machines - we aim to create the next generation of bionic systems. The envisioned hybrids promise new discoveries in the nonlinear mechanical responses of soft systems, and may allow exploiting triggered elastic instabilities for unconventional locomotion. Exploring soft matter, intimately united with solid materials, will trigger novel concepts for medical equipment, healthcare, consumer electronics, energy harvesting from renewable sources and in robotics, with imminent impact on our society.
Summary
Hydrogels evolved as versatile building blocks of life – we all are in essence gel-embodied soft machines. Drawing inspiration from the diversity found in living creatures, GEL-SYS will develop a set of concepts, materials approaches and design rules for wide ranging classes of soft, hydrogel-based electronic, ionic and photonic devices in three core aims.
Aim (A) will pursue a high level of complexity in soft, yet tough biomimetic devices and machines by introducing nature-inspired instant strong bonds between hydrogels and antagonistic materials – from soft and elastic to hard and brittle. Building on these newly developed interfaces, aim (B) will pursue biocompatible hydrogel electronics with iontronic transducers and large area multimodal sensor arrays for a new class of medical tools and health monitors. Aim (C) will foster the current soft revolution of robotics with self-sensing, transparent grippers not occluding objects and workspace. A soft robotic visual system with hydrogel-based adaptive optical elements and ultraflexible photosensor arrays will allow robots to see while grasping. Autonomous operation will be a central question in soft systems, tackled with tough stretchable batteries and energy harvesting from mechanical motion on small and large scales with soft membranes. GEL-SYS will use our experience on soft, “imperceptible” electronics and devices. By fusing this technology platform with tough hydrogels - nature’s most pluripotent ingredient of soft machines - we aim to create the next generation of bionic systems. The envisioned hybrids promise new discoveries in the nonlinear mechanical responses of soft systems, and may allow exploiting triggered elastic instabilities for unconventional locomotion. Exploring soft matter, intimately united with solid materials, will trigger novel concepts for medical equipment, healthcare, consumer electronics, energy harvesting from renewable sources and in robotics, with imminent impact on our society.
Max ERC Funding
1 499 975 €
Duration
Start date: 2018-01-01, End date: 2022-12-31
Project acronym HEFT
Project Hidden Emissions of Forest Transitions: GHG effects of socio-metabolic processes reducingpressures on forests
Researcher (PI) Simone GINGRICH
Host Institution (HI) UNIVERSITAET FUER BODENKULTUR WIEN
Call Details Starting Grant (StG), SH2, ERC-2017-STG
Summary A forest transition, i.e. forest expansion after a long period of deforestation, has occurred in many, mostly industrialized countries. Forest transitions have recently resulted in declining rates of global net deforestation and contributed to carbon (C) sinks in terrestrial ecosystems. Studies have shown the concurrence of forest transitions and industrialization processes, but the systemic links between forest transitions, their underlying socio-metabolic processes and associated greenhouse gas (GHG) emissions have been neither systematically explored nor quantified.
HEFT introduces the idea of “hidden emissions of forest transitions”, i.e. the GHG emissions from socio-metabolic processes reducing pressures on forests. Hidden emissions may stem from processes such as substitution of fuelwood by modern energy sources, intensification of agriculture, and externalization of biomass production to remote regions. Building on the concept of socio-ecological metabolism, HEFT develops a consistent methodological framework to quantify the full GHG emissions and sinks from socio-metabolic and ecological processes in the course of forest transitions, within which their hidden emissions are identified. Forest transitions in multiple contexts are analyzed at local, national and supranational scales: in Europe since c. 1850, North America since c. 1880, and South East Asia since 1980. A coarse global-scale assessment complements the regional case studies.
We will integrate sources and analytical methods from environmental and social sciences as well as the humanities to analyze context-specific trajectories and general features of socio-ecological GHG budgets and their respective socio-political contexts since the onset of forest transitions. The sound understanding of hidden emissions will be used to identify the least GHG-intensive trajectories and to draw lessons for future climate-friendly forest transitions.
Summary
A forest transition, i.e. forest expansion after a long period of deforestation, has occurred in many, mostly industrialized countries. Forest transitions have recently resulted in declining rates of global net deforestation and contributed to carbon (C) sinks in terrestrial ecosystems. Studies have shown the concurrence of forest transitions and industrialization processes, but the systemic links between forest transitions, their underlying socio-metabolic processes and associated greenhouse gas (GHG) emissions have been neither systematically explored nor quantified.
HEFT introduces the idea of “hidden emissions of forest transitions”, i.e. the GHG emissions from socio-metabolic processes reducing pressures on forests. Hidden emissions may stem from processes such as substitution of fuelwood by modern energy sources, intensification of agriculture, and externalization of biomass production to remote regions. Building on the concept of socio-ecological metabolism, HEFT develops a consistent methodological framework to quantify the full GHG emissions and sinks from socio-metabolic and ecological processes in the course of forest transitions, within which their hidden emissions are identified. Forest transitions in multiple contexts are analyzed at local, national and supranational scales: in Europe since c. 1850, North America since c. 1880, and South East Asia since 1980. A coarse global-scale assessment complements the regional case studies.
We will integrate sources and analytical methods from environmental and social sciences as well as the humanities to analyze context-specific trajectories and general features of socio-ecological GHG budgets and their respective socio-political contexts since the onset of forest transitions. The sound understanding of hidden emissions will be used to identify the least GHG-intensive trajectories and to draw lessons for future climate-friendly forest transitions.
Max ERC Funding
1 401 941 €
Duration
Start date: 2018-04-01, End date: 2023-03-31
Project acronym LEBMEC
Project Laser-engineered Biomimetic Matrices with Embedded Cells
Researcher (PI) Aleksandr Ovsianikov
Host Institution (HI) TECHNISCHE UNIVERSITAET WIEN
Call Details Starting Grant (StG), PE8, ERC-2012-StG_20111012
Summary Traditional 2D cell culture systems used in biology do not accurately reproduce the 3D structure, function, or physiology of living tissue. Resulting behaviour and responses of cells are substantially different from those observed within natural extracellular matrices (ECM). The early designs of 3D cell-culture matrices focused on their bulk properties, while disregarding individual cell environment. However, recent findings indicate that the role of the ECM extends beyond a simple structural support to regulation of cell and tissue function. So far the mechanisms of this regulation are not fully understood, due to technical limitations of available research tools, diversity of tissues and complexity of cell-matrix interactions.
The main goal of this project is to develop a versatile and straightforward method, enabling systematic studies of cell-matrix interactions. 3D CAD matrices will be produced by femtosecond laser-induced polymerization of hydrogels with cells in them. Cell embedment results in a tissue-like intimate cell-matrix contact and appropriate cell densities right from the start.
A unique advantage of the LeBMEC is its capability to alter on demand a multitude of individual properties of produced 3D matrices, including: geometry, stiffness, and cell adhesion properties. It allows us systematically reconstruct and identify the key biomimetic properties of the ECM in vitro. The particular focus of this project is on the role of local mechanical properties of produced hydrogel constructs. It is known that, stem cells on soft 2D substrates differentiate into neurons, stiffer substrates induce bone cells, and intermediate ones result in myoblasts. With LeBMEC, a controlled distribution of site-specific stiffness within the same hydrogel matrix can be achieved in 3D. This way, by rational design of cell-culture matrices initially embedding only stem cells, for realisation of precisely defined 3D multi-tissue constructs, is possible for the first time.
Summary
Traditional 2D cell culture systems used in biology do not accurately reproduce the 3D structure, function, or physiology of living tissue. Resulting behaviour and responses of cells are substantially different from those observed within natural extracellular matrices (ECM). The early designs of 3D cell-culture matrices focused on their bulk properties, while disregarding individual cell environment. However, recent findings indicate that the role of the ECM extends beyond a simple structural support to regulation of cell and tissue function. So far the mechanisms of this regulation are not fully understood, due to technical limitations of available research tools, diversity of tissues and complexity of cell-matrix interactions.
The main goal of this project is to develop a versatile and straightforward method, enabling systematic studies of cell-matrix interactions. 3D CAD matrices will be produced by femtosecond laser-induced polymerization of hydrogels with cells in them. Cell embedment results in a tissue-like intimate cell-matrix contact and appropriate cell densities right from the start.
A unique advantage of the LeBMEC is its capability to alter on demand a multitude of individual properties of produced 3D matrices, including: geometry, stiffness, and cell adhesion properties. It allows us systematically reconstruct and identify the key biomimetic properties of the ECM in vitro. The particular focus of this project is on the role of local mechanical properties of produced hydrogel constructs. It is known that, stem cells on soft 2D substrates differentiate into neurons, stiffer substrates induce bone cells, and intermediate ones result in myoblasts. With LeBMEC, a controlled distribution of site-specific stiffness within the same hydrogel matrix can be achieved in 3D. This way, by rational design of cell-culture matrices initially embedding only stem cells, for realisation of precisely defined 3D multi-tissue constructs, is possible for the first time.
Max ERC Funding
1 440 594 €
Duration
Start date: 2013-03-01, End date: 2018-02-28
Project acronym MARIPOLDATA
Project The Politics of Marine Biodiversity Data: Global and National Policies and Practices of Monitoring the Oceans
Researcher (PI) Alice VADROT
Host Institution (HI) UNIVERSITAT WIEN
Call Details Starting Grant (StG), SH2, ERC-2018-STG
Summary In order to protect marine biodiversity and ensure that benefits are equally shared, the UN General Assembly has decided to develop a new legally binding treaty under the United Nations Convention on the Law of the Sea. Marine biodiversity data will play a central role: Firstly, in supporting intergovernmental efforts to identify, protect and monitor marine biodiversity. Secondly, in informing governments interested in particular aspects of marine biodiversity, including its economic use and its contribution to biosecurity. In examining how this data are represented and used, this project will create a novel understanding of the materiality of science-policy interrelations and identify new forms of power in global environmental politics as well as develop the methodologies to do so. This is crucial, because the capacities to develop and use data infrastructures are unequally distributed among countries and global initiatives for data sharing are significantly challenged by conflicting perceptions of who benefits from marine biodiversity research. Despite broad recognition of these challenges within natural science communities the political aspects of marine biodiversity data remain understudied. Academic debates tend to neglect the role of international politics in legitimising and authorising scientific concepts, data sources and criteria and how this influences national monitoring priorities. The central objective of MARIPOLDATA is to overcome these shortcomings by developing and applying a new multiscale methodology for grounding the analysis of science-policy interrelations in empirical research. An interdisciplinary team, led by the PI, will collect and analyse data across different policy-levels and spatial scales by combining 1) ethnographic studies at intergovernmental negotiation sites with 2) a comparative analysis of national biodiversity monitoring policies and practices and 3) bibliometric and social network analyses and oral history interviews for mapping marine biodiversity science.
Summary
In order to protect marine biodiversity and ensure that benefits are equally shared, the UN General Assembly has decided to develop a new legally binding treaty under the United Nations Convention on the Law of the Sea. Marine biodiversity data will play a central role: Firstly, in supporting intergovernmental efforts to identify, protect and monitor marine biodiversity. Secondly, in informing governments interested in particular aspects of marine biodiversity, including its economic use and its contribution to biosecurity. In examining how this data are represented and used, this project will create a novel understanding of the materiality of science-policy interrelations and identify new forms of power in global environmental politics as well as develop the methodologies to do so. This is crucial, because the capacities to develop and use data infrastructures are unequally distributed among countries and global initiatives for data sharing are significantly challenged by conflicting perceptions of who benefits from marine biodiversity research. Despite broad recognition of these challenges within natural science communities the political aspects of marine biodiversity data remain understudied. Academic debates tend to neglect the role of international politics in legitimising and authorising scientific concepts, data sources and criteria and how this influences national monitoring priorities. The central objective of MARIPOLDATA is to overcome these shortcomings by developing and applying a new multiscale methodology for grounding the analysis of science-policy interrelations in empirical research. An interdisciplinary team, led by the PI, will collect and analyse data across different policy-levels and spatial scales by combining 1) ethnographic studies at intergovernmental negotiation sites with 2) a comparative analysis of national biodiversity monitoring policies and practices and 3) bibliometric and social network analyses and oral history interviews for mapping marine biodiversity science.
Max ERC Funding
1 391 932 €
Duration
Start date: 2018-11-01, End date: 2023-10-31
Project acronym MICROBONE
Project Multiscale poro-micromechanics of bone materials, with links to biology and medicine
Researcher (PI) Christian Hellmich
Host Institution (HI) TECHNISCHE UNIVERSITAET WIEN
Call Details Starting Grant (StG), PE8, ERC-2010-StG_20091028
Summary "Modern computational engineering science allows for reliable design of the most breathtaking high-rise buildings, but it has hardly entered the fracture risk assessment of biological structures like bones. Is it only an engineering scientist's dream to decipher mathematically the origins and the evolution of the astonishingly varying mechanical properties of hierarchical biological materials? Not quite: By means of micromechanical theories, we could recently show in a quantitative fashion how ""universal"" elementary building blocks (being independent of tissue type, species, age, or anatomical location) govern the elastic properties of bone materials across the entire vertebrate kingdom, from the super-molecular to the centimetre scale. Now is the time to drive forward these developments beyond elasticity, striving for scientific breakthroughs in multiscale bone strength. Through novel, experimentally validated micromechanical theories, we will aim at predicting tissue-specific inelastic
properties of bone materials, from the ""universal"" mechanical properties of the nanoscaled elementary components (hydroxyapatite, collagen, water), their tissue-specific dosages, and the ""universal"" organizational patterns they build up. Moreover, we will extend cell population models of contemporary systems biology, towards biomineralization kinetics,in
order to quantify evolutions of bone mass and composition in living organisms. When using these evolutions as input for the aforementioned micromechanics models, the latter will predict the mechanical implications of biological processes. This will open unprecedented avenues in bone disease therapies, including patient-specific bone fracture risk assessment relying on micromechanics-based Finite Element analyses."
Summary
"Modern computational engineering science allows for reliable design of the most breathtaking high-rise buildings, but it has hardly entered the fracture risk assessment of biological structures like bones. Is it only an engineering scientist's dream to decipher mathematically the origins and the evolution of the astonishingly varying mechanical properties of hierarchical biological materials? Not quite: By means of micromechanical theories, we could recently show in a quantitative fashion how ""universal"" elementary building blocks (being independent of tissue type, species, age, or anatomical location) govern the elastic properties of bone materials across the entire vertebrate kingdom, from the super-molecular to the centimetre scale. Now is the time to drive forward these developments beyond elasticity, striving for scientific breakthroughs in multiscale bone strength. Through novel, experimentally validated micromechanical theories, we will aim at predicting tissue-specific inelastic
properties of bone materials, from the ""universal"" mechanical properties of the nanoscaled elementary components (hydroxyapatite, collagen, water), their tissue-specific dosages, and the ""universal"" organizational patterns they build up. Moreover, we will extend cell population models of contemporary systems biology, towards biomineralization kinetics,in
order to quantify evolutions of bone mass and composition in living organisms. When using these evolutions as input for the aforementioned micromechanics models, the latter will predict the mechanical implications of biological processes. This will open unprecedented avenues in bone disease therapies, including patient-specific bone fracture risk assessment relying on micromechanics-based Finite Element analyses."
Max ERC Funding
1 493 399 €
Duration
Start date: 2010-11-01, End date: 2015-10-31
Project acronym RATIMED
Project Re-Assembling Tibetan Medicine: The formation of a transnational Sowa Rigpa industry in contemporary India, China, Mongolia and Bhutan
Researcher (PI) Stephan Kloos
Host Institution (HI) OESTERREICHISCHE AKADEMIE DER WISSENSCHAFTEN
Call Details Starting Grant (StG), SH2, ERC-2013-StG
Summary "“Traditional medicine” has recently emerged from a highly marginalized position in many parts of the world to become a rapidly expanding and highly innovative multi-billion dollar global industry. However, despite growing academic, economic and public interest in the “traditional” pharmaceutical industry, we know little about its larger dynamics, shape, and wider socio-economic and public health implications. The proposed 5-year interdisciplinary study of the emergent transnational Tibetan medicine (or “Sowa Rigpa”) industry in India, China, Mongolia and Bhutan aims to fill this gap.
The Sowa Rigpa industry, in which Tibetan medicine is transformed into a mass-produced commodity for domestic and international markets, is a particularly illustrative and timely case of ""traditional"" medicine's development. It is illustrative because it reflects the dynamics of the traditional pharma industry at large, and it is timely because Tibetan medicine’s industrialization and pharmaceuticalization has only begun during the last decade, enabling this study to investigate its formation in real time.
Introducing the concept of the pharmaceutical assemblage,the proposed project will break new ground by being the first comprehensive, large-scale, interdisciplinary study of Sowa Rigpa in a transnational context. It will apply an innovative interdisciplinary approach to generate a ""big picture"" of this industry and unprecedented insights into the global traditional pharma market, which despite its growing relevance and popularity remains poorly understood.
This project will be based at the AAS’s Institute for Social Anthropology, carried out by an international team of 4 post-doctoral researchers, and involve 54 months of multi-sited field research. Besides numerous publications, 2 international workshops and 1 conference will be organized to present the results. While interdisciplinary, the research will be grounded in the field of medical and socio-cultural anthropology."
Summary
"“Traditional medicine” has recently emerged from a highly marginalized position in many parts of the world to become a rapidly expanding and highly innovative multi-billion dollar global industry. However, despite growing academic, economic and public interest in the “traditional” pharmaceutical industry, we know little about its larger dynamics, shape, and wider socio-economic and public health implications. The proposed 5-year interdisciplinary study of the emergent transnational Tibetan medicine (or “Sowa Rigpa”) industry in India, China, Mongolia and Bhutan aims to fill this gap.
The Sowa Rigpa industry, in which Tibetan medicine is transformed into a mass-produced commodity for domestic and international markets, is a particularly illustrative and timely case of ""traditional"" medicine's development. It is illustrative because it reflects the dynamics of the traditional pharma industry at large, and it is timely because Tibetan medicine’s industrialization and pharmaceuticalization has only begun during the last decade, enabling this study to investigate its formation in real time.
Introducing the concept of the pharmaceutical assemblage,the proposed project will break new ground by being the first comprehensive, large-scale, interdisciplinary study of Sowa Rigpa in a transnational context. It will apply an innovative interdisciplinary approach to generate a ""big picture"" of this industry and unprecedented insights into the global traditional pharma market, which despite its growing relevance and popularity remains poorly understood.
This project will be based at the AAS’s Institute for Social Anthropology, carried out by an international team of 4 post-doctoral researchers, and involve 54 months of multi-sited field research. Besides numerous publications, 2 international workshops and 1 conference will be organized to present the results. While interdisciplinary, the research will be grounded in the field of medical and socio-cultural anthropology."
Max ERC Funding
1 461 139 €
Duration
Start date: 2014-04-01, End date: 2019-03-31
Project acronym reFUEL
Project Going global? Renewable fuel trade and social land-use restrictions in a low-carbon energy system
Researcher (PI) Johannes SCHMIDT
Host Institution (HI) UNIVERSITAET FUER BODENKULTUR WIEN
Call Details Starting Grant (StG), SH2, ERC-2017-STG
Summary Recent global integrated modelling studies indicate low intensities in trade of energy commodities between global regions in a future low-carbon global energy system. Also, research based on modelling indicates that deep greenhouse-gas emission cuts are possible in fully electrified renewable energy systems on a continental or country scale from a techno-economic perspective.
However, these modelling efforts partly neglect drivers of globalization and may therefore wrongly project regionalization of energy systems. In particular, (i) new, easily tradable, low-cost renewable fuels (e.g. solar & electric fuels), (ii) global bio-physical variability of renewables (e.g. solar radiation and freshwater availability), and (iii) regional differences in social land-use restrictions associated with the expansion of energy infrastructure can cause an increase of trade flows in the energy sector.
We aim at better understanding how the spatial configuration of renewables in low-carbon energy systems is affected by these drivers and develop a cutting-edge, open-source global renewable energy model that combines elements of energy system and land-use modelling. It takes into account bio-physical conditions for renewable fuel and electricity production, social land availability restrictions, and a map of existing energy infrastructure at unprecedented level of detail. Our approach integrates open data sources from public institutions, user-generated GIS data, and social networks. Existing models for Europe and Brazil are used for validation. Qualitative interviews in local case studies complement the global model and increase our understanding of land-use restrictions on the local scale.
Our project has impacts beyond energy systems analysis: in particular the identification of winning and losing regions in a global renewable energy system is highly relevant in climate change mitigation negotiations, and the generated spatial indicators and maps enable many potential applications.
Summary
Recent global integrated modelling studies indicate low intensities in trade of energy commodities between global regions in a future low-carbon global energy system. Also, research based on modelling indicates that deep greenhouse-gas emission cuts are possible in fully electrified renewable energy systems on a continental or country scale from a techno-economic perspective.
However, these modelling efforts partly neglect drivers of globalization and may therefore wrongly project regionalization of energy systems. In particular, (i) new, easily tradable, low-cost renewable fuels (e.g. solar & electric fuels), (ii) global bio-physical variability of renewables (e.g. solar radiation and freshwater availability), and (iii) regional differences in social land-use restrictions associated with the expansion of energy infrastructure can cause an increase of trade flows in the energy sector.
We aim at better understanding how the spatial configuration of renewables in low-carbon energy systems is affected by these drivers and develop a cutting-edge, open-source global renewable energy model that combines elements of energy system and land-use modelling. It takes into account bio-physical conditions for renewable fuel and electricity production, social land availability restrictions, and a map of existing energy infrastructure at unprecedented level of detail. Our approach integrates open data sources from public institutions, user-generated GIS data, and social networks. Existing models for Europe and Brazil are used for validation. Qualitative interviews in local case studies complement the global model and increase our understanding of land-use restrictions on the local scale.
Our project has impacts beyond energy systems analysis: in particular the identification of winning and losing regions in a global renewable energy system is highly relevant in climate change mitigation negotiations, and the generated spatial indicators and maps enable many potential applications.
Max ERC Funding
1 499 905 €
Duration
Start date: 2018-08-01, End date: 2023-07-31
Project acronym RESPONSIVENESS
Project The Microfoundations of Authoritarian Responsiveness: E-Participation, Social Unrest and Public Policy in China
Researcher (PI) Christian Göbel
Host Institution (HI) UNIVERSITAT WIEN
Call Details Starting Grant (StG), SH2, ERC-2015-STG
Summary "China’s success story of the past three decades is seen as an anomaly. Market-based reforms have generated an economic system that can hardly be described as socialist anymore, but the Communist Party of China remains in power. Although social unrest is on the rise, the CCP enjoys the consent of the overwhelming majority of its people. Most agree that China’s economic performance is the key to solving this apparent puzzle, but how can extraordinary high rates of public support be maintained in a country where income inequality is so extreme?
We believe that the answer to this question lies in the responsiveness of China’s authoritarian one-party regime to popular demands and grievances, a capability that has so far been attributed only to democratic regimes. We further believe that the rapid improvement of e-participation, the opportunity to evaluate public services on the Internet, has greatly facilitated regime responsiveness - China’s score in the United Nations e-participation index is higher than the European average. We suggest, however, that as the government increasingly calibrates public policy towards satisfying the demand of China’s netizens, the ""technologically illiterate"" are forced to express their demands in public protests and other forms of social unrest.
The proposed project sheds light on the intended and unintended consequences of enhanced e-participation in China by exploring which social interests China’s rulers incorporate into public policy making, and how these decisions influence the propensity of particular social groups to voice their demands by either participating online or taking to the streets. By exploring the “complex system” in which online complaints, social unrest and public policy interact, the project provides insights into the micro-foundations of regime responsiveness in China. It thereby increases our knowledge of how the CCP seeks to defer the antagonism that prompted the revolutions in Egypt, Tunisia and Syria."
Summary
"China’s success story of the past three decades is seen as an anomaly. Market-based reforms have generated an economic system that can hardly be described as socialist anymore, but the Communist Party of China remains in power. Although social unrest is on the rise, the CCP enjoys the consent of the overwhelming majority of its people. Most agree that China’s economic performance is the key to solving this apparent puzzle, but how can extraordinary high rates of public support be maintained in a country where income inequality is so extreme?
We believe that the answer to this question lies in the responsiveness of China’s authoritarian one-party regime to popular demands and grievances, a capability that has so far been attributed only to democratic regimes. We further believe that the rapid improvement of e-participation, the opportunity to evaluate public services on the Internet, has greatly facilitated regime responsiveness - China’s score in the United Nations e-participation index is higher than the European average. We suggest, however, that as the government increasingly calibrates public policy towards satisfying the demand of China’s netizens, the ""technologically illiterate"" are forced to express their demands in public protests and other forms of social unrest.
The proposed project sheds light on the intended and unintended consequences of enhanced e-participation in China by exploring which social interests China’s rulers incorporate into public policy making, and how these decisions influence the propensity of particular social groups to voice their demands by either participating online or taking to the streets. By exploring the “complex system” in which online complaints, social unrest and public policy interact, the project provides insights into the micro-foundations of regime responsiveness in China. It thereby increases our knowledge of how the CCP seeks to defer the antagonism that prompted the revolutions in Egypt, Tunisia and Syria."
Max ERC Funding
1 292 440 €
Duration
Start date: 2016-05-01, End date: 2021-04-30