MSCA Research and Innovation Staff Exchange
Marie Skłodowska-Curie Research and Innovation Staff Exchange (RISE) is an action that funds the exchange of staff members for a period of one month to a year, with the aim of enhancing networking opportunities, sharing of knowledge and skill development.
Partners are research organizations, such as universities, research centres or private companies, from three different countries (among which at least two EU or associated countries) that cooperate in a joint, innovative project.
At present, the University of Padova participates in 5 exchange projects that involves research in medicine, math, engineering, environmental studies.
PROTINUS: PROviding new insighT into INteractions between soil fUnctions and Structure – supervised by Prof. Francesco Morari
The PROTINUS proposal assembles a multi-disciplinary team to combine advanced, applied and theoretical research to create a new standard in imaging, analysing, modelling and predicting the interactions between soil structure and soil functions. Soil structure impacts a whole range of services soil renders to ecosystems, including for example contaminant filtering, carbon storage, root growth, and microbiological diversity.
By using modern imaging, image analysis and modelling techniques, we will develop an integrated approach to perform experiments in soil physics, bio-chemistry, to reconstruct soil structure in 3D and to model soil processes. The evaluated models will be used for predicting the different services soil renders to ecosystems in a dynamic way and for testing classical theory, where soil structure is not directly taken into account. To do so we will bring together the theoretical and practical expertise of the involved researchers, infrastructure of the partnering institutes, soil samples and databases.
The first stage will investigate today’s best practise in experimental soil science and imaging, data analysis and modelling. Our findings will enable our second stage approach where synergies between the different disciplines will be explored. The third stage will provide the cornerstone of a new unified methodology meant to modify practise and outcomes of current experimental/imaging, analysis and modelling approaches. Our final stage will look at the changes brought to each of the specific research area’s practises and how it impacts the understanding of soil structure and its functions.
It is expected that our proposal will foster bilateral collaborations within Europe and with our overseas partners through local and international funding, shared database and infrastructure management, and lead to the creation of a sustainable international network of researchers, infrastructure and institutes.
nanoBAT: Enhanced brown adipose tissue activity using nanotechnology approaches – supervised by Prof. Roberto Vettor
The use of nanotechnology and nano-materials in biological applications is being widely explored and is considered a valuable approach to ameliorate human wellbeing. Specifically, nanoparticles and carbon nanotubes are of great scientific interest as they are currently used clinically as delivery systems for a wide range of drugs. An interdisciplinary approach that considers knowledge in chemistry, nano-materials, toxicology, physiology, molecular biology is vital for the progress of these devices and for the development of new procedures to create a novel market-ready prototype to boost human metabolism, fighting obesity and cardio-metabolic disease. An inter-sectoral approach is also required to put together Academic’s technical capabilities and facilities to conduct R&D activities with SMEs’ business expertise and viable supply chain to develop the prototype post project and to exploit the product in the market. Therefore, two academic (VUB and UniPD) and three industrial (INOC, IMED, ARTIA) European participants will create an interdisciplinary and inter-sectoral co-operation (nanoBAT) to design and construct a novel nanostructured delivery-L-menthol system prototype for brown adipose tissue activation. During its four years duration, nanoBAT aims to achieve research and innovation objectives via staff exchanges of experienced and early-stage researchers throughout a series of activities like: networking, research and training, workshop, innovation, dissemination, and outreach.
The joint research in this programme will study important aspects—both theoretical as well as applied—of computing with infinite objects. A central aim is laying the grounds for the generation of efficient and verified software in engineering applications.
A prime example for infinite data is provided by the real numbers, most commonly conceived as infinite sequences of digits. While most applications in science and engineering substitute the reals with floating point numbers of fixed finite precision and thus have to deal with truncation and rounding errors, the approach in this project is different: exact real numbers are taken as first-class citizens and while any computation can only exploit a finite portion of its input in finite time, increased precision is always available by continuing the computation process.
This project aims to bring together the expertise of specialists in mathematics, logic, and computer science to push the frontiers of our theoretical and practical understanding of computing with infinite objects. Three overarching motivations drive the proposed collaboration:
Representability. Cardinality considerations tell us that it is not possible to represent arbitrary mathematical objects in a way that is accessible to computation. We will enlist expertise in topology, logic, and set theory, to address the question of which objects are representable and how they can be represented most efficiently.
Constructivity. Working in a constructive mathematical universe can greatly enhance our understanding of the link between computation and mathematical structure. Not only informs us which are the objects of relevance, it also allows us to devise always correct algorithms from proofs.
Efficient implementation. We also aim to make progress on concrete implementations. Theoretical insights from elsewhere will be tested in actual computer systems; obstacles encountered in the latter will inform the direction of mathematical investigation.
AMITIE: Additive Manufacturing Initiative for Transnational Innovation in Europe – supervised by Prof. Paolo Colombo
Additive manufacturing (AM) technologies and overall numerical fabrication methods have been recognized by stakeholders as the next industrial revolution bringing customers’ needs and suppliers’ offers closer. It cannot be dissociated to the present trends in increased virtualization, cloud approaches and collaborative developments (i.e. sharing of resources). AM is likely to be one good option paving the way to Europe re-industrialization and increased competitiveness. AMITIE will reinforce European capacities in the AM field applied to ceramic-based products.
Through its extensive programme of transnational and intersectoral secondments, AMITIE will promote fast technology transfer and enable as well training of AM experts from upstream research down to more technical issues. This will provide Europe with specialists of generic skills having a great potential of knowledge-based careers considering present growing needs for AM industry development. To do that, AMITIE brings together leading academic and industrial European players in the fields of materials science/processes, materials characterizations, AM technologies and associated numerical simulations, applied to the fabrication of functional and/or structural ceramic-based materials for energy/transport, and ICTs applications, as well as biomaterials. Those players will develop a new concept of smart factory for the future based on 3D AM technologies (i.e. powder bed methods, robocasting, inkjet printing, stereolithography, etc.) and their possible hybridization together or with subtractive technologies (e.g. laser machining). It will allow for the production of parts whose dimensions, shapes, functionality and assembly strategies may be tailored to address today’s key technological issues of the fabrication of high added value objects following a fully-combinatorial route. This is expected to lead to a new paradigm for production of multiscale, multimaterial and multifunctional components and systems
PATH: Plasma Antenna Technologies – supervised by Prof. Daniele PATH: Plasma Antenna Technologies – supervised by Prof. Daniele Pavarin
PATH is intended to promote a collaborative researches focused in the development of high density plasma sources implemented with the Exchange of staff personnel between the partners of the network. The research will also address transfer of knowledge and training of the researchers in the specific field of plasma sources and its applications in the telecommunication sector.
High density plasma sources find large number of industrial applications from material treatment to Telecommunication. Overcoming the density limit of current source will open new frontier in several technological field.
PATH aims at cross linking different competences to study and develop prototype of plasma sources and plasma antenna based on hybrid technologies based on Radiofrequency and Hollow cathode technologies.
A Gaseous Plasma Antenna (GPA) is a plasma discharge confined in a dielectric tube that uses partially or fully ionized gas to generate and receive electromagnetic waves; GPAs are virtually “transparent” above the plasma frequency and become “invisible” when turned off. Unlike ordinary metallic antennas, GPAs and Plasma Antenna Arrays can be reconfigured electrically (rather than mechanically) with respect to impedance, frequency, bandwidth and directivity on time scales the order of microseconds or milliseconds. It is also possible to stack arrays of GPAs designed to operate at different frequencies. A Plasma Antenna will be able to: (i) identifying the direction of incoming signal, (ii) tracking and locating the antenna beam on the mobile/target, (iii) beam-steering while minimizing interferences.
Actual technology is based mainly on: (i) DC discharge, (ii) AC discharge, (iii) RF discharge, (iv) Microwaves, (v) Hollow cathode. Improvement of plasma source performances require a strong effort in term of modelling and technology.
The aim of PATH is to merge European competences to make a substantial step toward innovative hybrid plasma sources.
International Research Office
Servizio Ricerca Internazionale
Via Martiri della Libertà, 8 - 35122 Padova
Tel. +39 049 827 1947 / 1945 - fax +39 049 827 1911