Vacancies
Within EvoGamesPlus we offer 15 fully-funded 3-year positions for Early Stage Researchers (ESRs). If you are interested in one or more positions we offer, please contact the first supervisor listed for this position(s), briefly motivating your interest and attaching your up-to-date CV, by January 15, 2021. This is just to ensure that you are considered in all positions you are interested in.
To be eligible for a particular position, at the start of that project you should be within 4 years after acquiring your degree which allows you to undertake a doctoral study. Moreover, you cannot possess a doctorate yet at the start of the project and you should not have lived in the country where the project takes place for more than one year during the past 3 years.
Application dates and start dates vary. Please check individual ESR projects for details as well as for specific / local acceptance requirements.
The evolution of cooperation in structured populations involving multiplayer interactions
ESR1: City, University of London, United Kingdom
Internal supervisors: Prof. Mark Broom, Dr. Andrea Baronchelli
Considered for all positions.
Brief project description: This project will develop and expand evolutionary game theoretical models of cooperation for multiplayer interactions. The main goal is to explore the conditions when the evolution of cooperation is favoured. Recent work has found initial structural properties which support cooperation, and we will carry out a more thorough investigation of these and other properties. We will consider a wide range of multi-player cooperative games, which have been demonstrated to have distinct properties. These models will then be applied in different fields, such as epidemiology.
Starting date: July 2021 or earlier
Eco-evolutionary dynamics of complex multiplayer and multiple games
ESR2: Max Planck Institute for Evolutionary Biology, Germany
Internal supervisors: Dr. Chaitanya S. Gokhale, Prof. Arne Traulsen
Brief project description: Evolutionary games are never played in isolation, the advent of multiple games theory therefore begs new studies to improve our understanding of how complex interaction patterns shape the eco-evolutionary dynamics of a population. Building upon the previous work on multiplayer and multiple games, we will include evolutionary and ecological dynamics and analyse the deterministic properties and effects of instantaneous versus delayed interactions.
Starting date: August 2021
Application deadline: 15 May 2021
The evolution of cooperation in structured populations involving multi-level selection
ESR3: Centre for Ecological Research/Ökológiai Kutatóközpont, Hungary
Internal supervisors: Dr. József Garay, Dr. Ádám Kun
Brief project description: We shall develop models of multi-level selection, in which within-group competition and between-group competition are at odds. Individuals within a group face a social dilemma and their individual payoffs determine their within-group success. At the same time, the groups may also compete with each other, and cooperative individuals contribute more to the competition abilities of their group than the selfish ones. We will investigate conditions that are conductive for the maximisation of the total payoff (welfare) of the group.
Starting date: September 2021
Instructions for applying and application deadline: to be added soon
Criticality and self-organization of evolutionary game
ESR4: Delft University of Technology, The Netherlands
Internal supervisors: Dr. Johan Dubbeldam, Dr. Wim van Horssen
Brief project description: In this project, we will study differential equation models for self-organizing systems and use bifurcation theory to identify critical parameter regimes. Subsequently, we will build on existing minimal nonlinear models and extend the theory to include time dependence of the network topology, and apply the models to work from other work projects, in particular in modelling cancer and optimizing its treatment.
Starting date: August 2021
Application deadline: Passed
Critical Transitions in Evolutionary Games
ESR5: University College Cork, Ireland
Internal supervisors: Prof. Sebastian Wieczorek, Dr. Kieran Mulchrone
Brief project description: In this project, we will identify key questions in the area of stability analysis in evolutionary games and build on the existing techniques from bifurcation theory, critical transitions theory and network science to develop new mathematical framework to study instabilities in evolutionary games. The focus will be on stability criteria for Nash and Stackelberg equilibria, and on critical transitions (tipping points) that are triggered by changing external conditions. The methods developed will be applied to identify:
- Optimal strategies in cancer treatment
- Critical factors for “failure to adapt” to changing environment (e.g. climate) in ecosystems
Starting date: August 2021
Application deadline: Passed
The evolution of cooperation in populations involving multi-player games and time delays
ESR6: University of Warsaw, Poland
Internal supervisors: Prof. Jacek Miękisz, Prof. Marek Bodnar
Brief project description: Evolutionary games on graphs and those with time delays are difficult to analyse analytically. Usually one has to rely on numerical and stochastic simulations. The main objective of this project is to develop approximation techniques and tools which will make possible an analytical treatment of such evolutionary processes. We adopt mean-field type models and their generalizations in the form of systems of ordinary differential equations. Approximation of stochastic processes by deterministic evolution has been studied before. We will build on existing concepts and models having in mind specific applications to problems of sustained cooperation in evolutionary game models of social dilemmas. Moreover, we will explore joint effects of stochasticity and time delays on evolution of interacting populations in evolutionary and epidemiological models.
Starting date: August 2021
Instructions for applying and application deadline: to be added soon
Information theoretic aspects of modularity, self-similarity, and stability in multiplayer games on adaptive networks
ESR7: Medical University Vienna, Austria
Internal supervisors: Dr. Rudolf Hanel, Dr. Peter Klimek
Brief project description: We will study systems of entities playing iterated games (e.g. tagged zero-determinant games) typically phrased as systems of differential equations. In particular we focus on social dilemma games as models of self-organised regulatory networks and on how respective dynamical properties, such as the number, type, and stability of attractors depend on topological properties of the underlying regulatory network. To study such interrelations we build on information theoretic strategies and a proven dynamical systems framework based on a statistical ensemble approach inspired by random matrix theory. Studying how features such as modularity or the prevalence of link signs (+/-) influence the resilience and dynamics of adaptive systems translates to potentials that govern the evolutionary emergence of sustainable context sensitive regulatory strategies and networks both on microscopic (genetic/chemical reaction networks) and macroscopic scales (eco-systems).
Starting date: August 2021
Application deadline: 19 March 2021
Theory of Stackelberg evolutionary games for cancer treatment
ESR8: Maastricht University, The Netherlands
Internal supervisors: Dr. Kateřina Staňková, Dr. Rachel Cavill
Brief project description: We will develop a basic framework of Stackelberg evolutionary games for cancer treatment, based on the initial work by Staňková, Brown, Dubbeldam et al. This involves analysis of equilibria in these games (thus ESS among cancer cells as followers in this game and Stackelberg equilibria between the physician as the leader and cancer cells as followers) but also their transient dynamics and other dynamical properties. Moreover, specific instances of these games will be designed to analyse treatment in specific cancers, with patient data from ongoing trials as an input.
Starting date: August 2021
Application deadline: passed
Impact of different resistance mechanisms on the outcomes of cancer treatment game
ESR9: Queen Mary University London, United Kingdom
Internal supervisors: Dr. Weini Huang, Dr. Dudley Stark
Brief project description: We will study how different mechanisms of resistance (e.g. genetic mutations, phenotypic/epigenetic changes, combination of both) in cancer cells impact patient treatment prospects and how we adjust treatment to maximise its efficacy under these different mechanisms. This will be done via varying assumptions of existing game-theoretical models but including resistance as an evolving trait. We will connect theoretical predictions with measurable quantities such as genetic composition of tumour cells in publically available cancer data, in order to reveal and quantify the impact of genetic and non-genetic mechanisms on resistance evolution.
Starting date: July 2021 or earlier
Application deadline: passedRead
Evolutionary therapy in ovarian cancer
ESR10: Barts Cancer Institute, Queen Mary University London, United Kingdom
Internal supervisors: Dr. Benjamin Werner, Prof. Trevor Graham
Brief project description: We will study how different mechanisms of resistance (e.g. genetic mutations, phenotypic/epigenetic changes, combination of both) in cancer cells impact patient treatment prospects and how we adjust treatment to maximise its efficacy under these different mechanisms. This will be done via varying assumptions of existing game-theoretical models but including resistance as an evolving trait. We will connect theoretical predictions with measurable quantities such as genetic composition of tumour cells in publically available cancer data, in order to reveal and quantify the impact of genetic and non-genetic mechanisms on resistance evolution.
Starting date: July 2021 or earlier
Application deadline: passed
Data-driven support to understanding of complex dynamical physical phenomena, such as epidemics
ESR11: University of Torino, Italy
Internal supervisors: Prof. Maria Luisa Sapino, Prof. Matteo Sereno
Brief project description: In this project we will develop a learning framework to assist decision makers, suitable for the complicated dynamics of the systems interconnected under epidemic scenarios and the highly heterogeneous systems, varying in spatial and temporal scales data. We will also improve and refine this framework, to take into account the peculiarities of complex natural and human-based systems, such sparse and noisy observations. Furthermore, we will develop efficient sampling algorithms that, with limited available simulation budget (and therefore inherently sparse model results), allow to capture the main characteristics of the dynamically evolving system of interest..
Starting date: September 2021
Instructions for applying and application deadline: to be added soon
Models of evolution in network-structured populations
ESR12: University of Liverpool, United Kingdom
Internal supervisors: Dr. Kieran Sharkey, Dr. Kate Baker
Brief project description: We will develop eco-evolutionary dynamics models in network-structured populations. These models will be underpinned by real ecological processes by building on competition dynamics models in ecology and epidemiology. The development of this framework is expected to provide insights into evolution in structured populations. It also permits us to represent scenarios in which evolutionary and ecological timescales overlap, particularly in pathogen evolution. We will use the models to explain pathogen evolution data in structured populations obtained under laboratory conditions, using antimicrobial resistance as a model.
Starting date: July 2021 or earlier
Application deadline: 26 February 2021
Waning of immunity due to pathogen evolution
ESR13: University of Szeged, Hungary
Internal supervisors: Dr. Gergely Röst, Dr. Tibor Krisztin
Brief project description: The ESR will develop mathematical models to understand the interplay of population level epidemiological dynamics, within-host immune dynamics, and evolutionary dynamics of the pathogen, starting from an SIRS (susceptible - infected - recovered and immune - susceptible) framework and expanding it to more sophisticated mathematical tools (e.g. nonlinear differential equations with state-dependent delays and structured population models expressed by hyperbolic partial differential equations). These models will be accompanied with agent-based model counterparts, The models will be investigated by analytical and numerical methods and explicit stochastic simulations.
Starting date: August 2021
Instructions for applying and application deadline: to be added soon
Models of eco-evolutionary dynamics of population interaction networks
ESR14: University of South Bohemia, Czech Republic
Internal supervisors: Prof. V. Křivan, Assoc. Prof. L. Berec
Brief project description: This project focuses on integrating ecological models at behavioural, population, and evolutionary time scales. The ESR will integrate predator / parasitoid / pathogen and prey / host behaviours with their population dynamics, pollinator preferences for plants with plant-pollinator dynamics and, more generally, dynamics of interaction networks. S/he will use continuous models either in homogeneous or heterogeneous space. Alternatively, agent-based simulations that allow for heterogeneity in a range of individual characteristics (phenotype, spatial location, age, etc.) will be used. S/he will couple these models with either adaptive dynamics or real-time eco-evolutionary dynamics.
The ESR will be a part of the Centre for Mathematical Biology at Faculty of Science. The University campus is shared with the Biology Centre of the Czech Academy of Sciences, which makes it an ideal place for mathematical biology work that connects both mathematics and real biology. University of South Bohemia runs PhD programs in several disciplines, so the ESR will have an opportunity to enroll in one of these programs.
Starting date: September 2021.
Application deadline: 31 March 2021
Node embedding for epidemic spreading processes on temporal networks
ESR15: ISI Foundation, Italy
Internal supervisors: Dr. Daniela Paolotti, Dr. Michele Tizzoni
Brief project description: In this project, we will explore a node-embedding technique aimed at providing low-dimensional feature vectors that are informative of dynamical processes occurring over temporal networks – rather than of the network structure itself - with the goal of enabling prediction tasks related to the evolution and outcome of these processes. These embedding vectors are applicable as feature vectors in machine learning applications and yield improved performance for tasks such as node classification, link prediction, clustering, or visualization. This work will allow us to estimate temporal evolution of the entire system from sparse observations, consistently across several data sets and across a broad range of parameters of an epidemic model.
Starting date: August 2021
Instructions for applying and application deadline: to be added soon

This project has received funding from the European Union’s Horizon 2020 Research and Innovation Programme under the Marie Skłodowska-Curie grant agreement number 955708.