Asset Publisher
- CavityMag: Cavity quantum electrodynamics control of magnetic phases in twisted van der Waals heterostructures
- CRISPRGels: Rational Nanoparticle Design for Efficient Transmucosal CRISPR Delivery in Cystic Fibrosis
- EcoFoams: Isocyanate Free Self-Blowing Biobased Circular Foams
- E-Sprinkle: Electrically triggered zwitterionic polymers for water harvesting solutions
- G9-SCIENCE4ALL: The Night of Researchers for Everyone
- HARMONY: Holistic Approach to enhance the Recyclability of rare-earth permanent Magnets Obtained from aNY waste stream
- GN5-1
- ICARUS: International cooperation for sustainable aviation biofuels
- ICECOUP: ICE coupling protein inhibitors
- IMAGINE: Next generation imaging technologies to probe structure and function of biological specimen across scales in their natural context
- IONBIKE 2.0 : INNOVATIVE EUTECTOGELS FOR EMERGING APPLICATIONS
- IRISCC: Integrated Research Infrastructure Services for Climate Change risks
- LUMINOUS: Language Augmentation for Humanverse
- MS4PFAS: Application of gas-phase atmospheric pressure ionization sources to assess the wide-scope determination of PFAS in environmental and biological samples
- NEOPLASTICS- Natural deep Eutectic sOlvents for sustainable bioPLASTICS
- ORE4CITIZENS - Bringing offshore renewable energy to society
- PHOCAT- Innovative chemical reaction and photocatalyst design methods for sustainable CO2 reduction
- POHOWEP- Performance Optimization of a Hybrid Offshore Wind-Wave Energy Platform
- QuRe-ViMaL - Quantitative Rectifiability: from Vitushkin's conjecture to Manifold Learning
- RadicalProtON - Designing organic molecules as platforms for reversible charge-to-spin conversion with applications in chromophore optimisation and drug discovery
Introduction_ProjectsObtained
European Research Council (ERC) Grants
e-Sequence: a sequential approach to engineer heteroatom doped graphene nano-ribbons for electronic applications
Specific programme: European Research Council Consolidator Grant
UPV/EHU Partner Status: Coordinator
UPV/EHU PI: Aurelio Mateo Alonso
Project start: 01/11/2017
Project end: 31/10/2022
Brief description: Graphene nanoribbons (NR) are quasi-1D nanostructures with discrete band gaps, ballistic conduction, and one-atom thickness. Such properties make them ideal candidates to develop low-dimensional semiconductors, which are essential components in nanoelectronics. Atomically-precise control over the structure of NR (width, length, edge, doping) is crucial to fully exploit their potential. However, current approaches for the synthesis of NR suffer from several drawbacks that do not allow attaining such level of precision, therefore alternative methods need to be sought.
e-Sequence will develop an unprecedented approach that assembles stepwise small molecular building blocks into NR to specifically target the most important challenges in NR synthesis. Such approach will enable the preparation of an unlimited number of NR with atomically-precise control over their structure and with almost no synthetic and purification effort, exceeding the limits of existing methods.
The impact of e-Sequence will not be limited to NR synthesis but it will also extend to other disciplines, since NR are promising candidates to develop new technologies with applications in electronics, sensing, photonics, energy storage and conversion, spintronics, etc. e-Sequence ambitious research programme will be orchestrated by an independent scientist with an excellent track record of achievements in low-dimensional carbon nanostructures, and who has already established a fledgling and internationally competitive research group.
Future and Emerging Technologies (FET)
- 2D-INK: Redesigning 2D Materials for the Formulation of Semiconducting Inks
- ADAM^2: Analysis, Design, And Manufacturing using Microstructures
- EPIQUS: Electronic-photonic integrated quantum simulator platform
- I2C8: Inspiring to Create
- LION-HEARTED: LIGHT AND ORGANIC NANOTECHNOLOGY FOR CARDIOVASCULAR DISEASE
- MagnifiCOF: Shaping Covalent Organic Frameworks for Industrial Applications
- OpenSuperQ: An open Superconducting Computer
- QMiCS: Quantum Microwave Communcation and Sensing
- Quromorphic: Neuromrophic Quantum Computing
European Research Infrastructures (RI)
e-Sequence: a sequential approach to engineer heteroatom doped graphene nano-ribbons for electronic applications
Specific programme: European Research Council Consolidator Grant
UPV/EHU Partner Status: Coordinator
UPV/EHU PI: Aurelio Mateo Alonso
Project start: 01/11/2017
Project end: 31/10/2022
Brief description: Graphene nanoribbons (NR) are quasi-1D nanostructures with discrete band gaps, ballistic conduction, and one-atom thickness. Such properties make them ideal candidates to develop low-dimensional semiconductors, which are essential components in nanoelectronics. Atomically-precise control over the structure of NR (width, length, edge, doping) is crucial to fully exploit their potential. However, current approaches for the synthesis of NR suffer from several drawbacks that do not allow attaining such level of precision, therefore alternative methods need to be sought.
e-Sequence will develop an unprecedented approach that assembles stepwise small molecular building blocks into NR to specifically target the most important challenges in NR synthesis. Such approach will enable the preparation of an unlimited number of NR with atomically-precise control over their structure and with almost no synthetic and purification effort, exceeding the limits of existing methods.
The impact of e-Sequence will not be limited to NR synthesis but it will also extend to other disciplines, since NR are promising candidates to develop new technologies with applications in electronics, sensing, photonics, energy storage and conversion, spintronics, etc. e-Sequence ambitious research programme will be orchestrated by an independent scientist with an excellent track record of achievements in low-dimensional carbon nanostructures, and who has already established a fledgling and internationally competitive research group.
Marie Sklodowska Curie COFUND
Marie Sklodowska Curie Individual Fellowships
- 4D BIOGEL: 3D and 4D Bioprinting - Additive Manufacturing of Smart Biodegradable Hydrogels
- AccuCT: Accurate characterization of charge-transfer excited states
- AMO-dance: Strong Field Dynamics of Atoms and Molecules: History-dependent Functionals and Exact Kohn- Sham Potentials of the Time-dependent (multi-component) Density Functional Theory
- Basquesmith: Ironworking technology and social complexity of rural comunities during the Early Medieval Ages
- BogomolovMultiplier: Bogomolov Multiplier
- CALOSEMA: Central Authority and Local Strenght in Early Middle Ages: Comparing social complexity in Northern Iberia and Central Italy (8th – 10th centuries)
- CoEND: Correlated Electron-Nuclear Dynamics: A novel mixed quantum-semiclassical approach
- COUPC1: Coupling strategies for scavenging reactive C1 intermediates in hydrogen generation
- COUPCAT: Coupling dimerisation and metathesis reactions to produce propene from ethanol using heterogeneous catalysts and microreactor systems
- EARMEDCASTILE: The formation of the state in Early Medieval Castile: craft production and social complexity
- eJUMP: Organic Ionic Plastic Crystals Nanocomposites for Safer Batteries
- ENGINANO-HF: Engineered Nanoparticles Targeting Hair Follicles for Alopecia Areata Treatment
- ExciTitania: Excitonic quasiparticles in Titania
- FURLEUS: Promoting Friulian within Multilingual Education: A cross-country, cross-stage, cross-level comparison of Friulian and Basque teachers’ language attitudes and motivation in search of best practices
- INMARE: Injectable hydrogels for magnetically-activated, remote-controlled drug delivery
- iPILs4Bionics: Innovative Biodegradable Poly(ionic liquid)s for Bioelectronics
- LUMIMAGNET-NANO: Multifunctional luminescent and magnetic nanoparticles for advanced biomedical applications
- MagicFACE: Magnetic Hybrid Metal-Organic Interfaces
- MAGNET-CellPatch: Multimodal magnetic cellular-patches with synergistic effects for high performance theranostics
- NanoBeat: Developing Smart 3D Scaffolds based on Conductive Polymers and Carbon Nanotubes for Cardiac Tissue Engineering
- PHOTOWANN: Bulk Photovoltaic effect via Wannier functions
- PRIUS-TE: Printing Ultrasound Stimulated piezoelectric materials for Tissue Engineering
- QESPEM: Light-controlled bright and stable plexcitonic quantum emitters operating in both single-photon and entangledphoton- pair emission modes
- QFluctTrans: Thermodynamics of Quantum Transport
- RENASCENCE: The Role of European National Health Services in the enhancement of sustainable food systems
- RF-MAFS: Novel RF Driven MRI Magnet for Imaging Enhancement
- RHIZOSHEET: Patterned microfluidic sheets for studies of root exudation profiles
- RPOB: Redox Polymer with synergetic electrical and ionic conducting properties for all-Organic Batteries
- Schizo-EPICOG: Inflammatory processes underlying cognitive deficits in schizophrenia: epigenetic mechanisms and pharmacological regulation
- SI: Structural and functional characterization of the ICOS/ICOSL immune complex
- SN2DNA: In silico design and assessment of novel polyelectrophylic chemotherapy agents
- SOCISS: Spin-Orbit Coupling at Interfaces from Spintronics to new Superconducting effects
- SpinMan: Electrical Spin Manipulation in Atoms and Molecules
- THERMUCNA: Thermoresponsive and mucoadhesive nanogels for intramammary administration of antimicrobial compounds to be employed in bovine mastitis treatment
- TLALOC: Titan's Lakes and Lower Clouds - investigation of the enigmatic methane cycle with a new advanced model
- T-LICS: Transfer of Linguistic Intonation in Contact Situations
- WavyRibbons: Wavy N-doped Graphene Nanoribbons for Single Molecule Electronics
Marie Sklodowska Curie Research & Innovation Staff Exchange (RISE)
e-Sequence: a sequential approach to engineer heteroatom doped graphene nano-ribbons for electronic applications
Specific programme: European Research Council Consolidator Grant
UPV/EHU Partner Status: Coordinator
UPV/EHU PI: Aurelio Mateo Alonso
Project start: 01/11/2017
Project end: 31/10/2022
Brief description: Graphene nanoribbons (NR) are quasi-1D nanostructures with discrete band gaps, ballistic conduction, and one-atom thickness. Such properties make them ideal candidates to develop low-dimensional semiconductors, which are essential components in nanoelectronics. Atomically-precise control over the structure of NR (width, length, edge, doping) is crucial to fully exploit their potential. However, current approaches for the synthesis of NR suffer from several drawbacks that do not allow attaining such level of precision, therefore alternative methods need to be sought.
e-Sequence will develop an unprecedented approach that assembles stepwise small molecular building blocks into NR to specifically target the most important challenges in NR synthesis. Such approach will enable the preparation of an unlimited number of NR with atomically-precise control over their structure and with almost no synthetic and purification effort, exceeding the limits of existing methods.
The impact of e-Sequence will not be limited to NR synthesis but it will also extend to other disciplines, since NR are promising candidates to develop new technologies with applications in electronics, sensing, photonics, energy storage and conversion, spintronics, etc. e-Sequence ambitious research programme will be orchestrated by an independent scientist with an excellent track record of achievements in low-dimensional carbon nanostructures, and who has already established a fledgling and internationally competitive research group.
Marie Sklodowska Curie Innovative Training Networks (ITN)
- CARMEN: Communal Art - Reconceptualising Metrical Epigraphy Network
- CATMEC: Catalytic Methods for Sustainable Synthesis. A Merged Experimental and Computational Approach
- ENABLE: European Network for Alloys Behaviour Law Enhancement
- ENRICH: Enriched communication across the lifespan
- MAMI: Magnetics and Microhydrodynamics - from guided transport to delivery
- NATURE: Innovative designs to enable plastic packaging circular economy
- NIPU: Synthesis, Characterization, Structure and Properties of Novel Nonisocyanate Polyurethanes
- PHOTO-EMULSION: Towards Next-generation Eco-efficient PHOTO and EMULSION PolymerisationsImparting Synergy to Process, Products and Applications
- POLYSTORAGE: European Training Network in Innovative Polymers for Next Generation Electrochemical Energy Storage
- POLYTE: European Industrial Doctorate in Innovative POLYmers for Lithium Battery TEchnologies
- PROTOMET: Protometabolic pathways: exploring the chemical roots of systems biology
- REPOL: Characterization, Compatibilization, Processing and Properties Of Recycled Polyolefins
- SUSPOL: Sustainable Organocatalysis and Polymers
- TCCM: Theoretical Chemistry and Computational Modelling
- TRACKWAY: Training of Innovative, Creative and Entrepreneurial Researchers in Waterborne Dispersed Polymers
- VITRIMAT: Training in VITRImers: high performance MAterials and Trainees for cutting-edge industrial applications
Marie Sklodowska Curie NIGHT
Industrial Leadership (LEIT)
- 5G ESSENCE: Embedded Network Services for 5G Experiences
- ASTONISH: Advancing Smart Optical Imaging and Sensing for Health
- DataBio: Data-Driven Bioeconomy
- DRIVE: Diabetes Reversing Implants with enhanced Viability and long-term Efficacy Project
- InterQ: Interlinked Process, Product and Data Quality framework for Zero-Defects Manufacturing
- LIGNICOAT: Sustainable COATings based on LIGNIn resins and bio-additives with improved fire, corrosion and biological resistance
- METABUILDING LABS: METAclustered, SME oriented European Open Innovation Test Bed for the BUILDING envelope materials industrial sector using a harmonised and upgraded technical framework and living LABS
- MONROE: Measuring Mobile Broadband Networks in Europe
- Moore4Medical: Accelerating Innovation in Microfabricated Medical Devices
- MOSTOPHOS: Modelling stability of organic phosphorescent light-emitting diodes
- NanoPAT: Process Analytical Technologies for Industrial Nanoparticle Production
- NEOHIRE: NEOdymium-Iron-Boron base materials, fabrication techniques and recycling solutions to HIghly REduce the consumption of Rare Earths in Permanent Magnets for Wind Energy Application
- PARADDISE: A Productive, Affordable and Reliable solution for large scale manufacturing of metallic components by combining laser-based ADDItive and Subtractive processes with high Efficiency
- PEPTICAPS: Design of polyPEPTIdes diblock copolymers as emulsifiers to produce safe, controlled and reliable novel stimuli-responsive nanoCAPSules for skin care applications
- REACT: REsettable Hold-Down and Release ACTuator
- RECOBA: Cross-sectorial real-time sensing, advanced control and optimisation of batch processes saving energy and raw materials
- SESAME: Small cEllS coordinAtion for Multi-tenancy and Edge services
- SHERLOHCK: Sustainable and cost-efficient catalyst for Hydrogen and Energy stoRage applications based on Liquid Organic Hydrogen Carriers: economic viability for marKet uptake
- SignON: Sign Language Translation Mobile Application and Open Communications Framework
- TRIANKLE: 3d Bioprinted Personalised Scaffolds for Tissue Regeneration of Ankle Joint
Societal Challenges
e-Sequence: a sequential approach to engineer heteroatom doped graphene nano-ribbons for electronic applications
Specific programme: European Research Council Consolidator Grant
UPV/EHU Partner Status: Coordinator
UPV/EHU PI: Aurelio Mateo Alonso
Project start: 01/11/2017
Project end: 31/10/2022
Brief description: Graphene nanoribbons (NR) are quasi-1D nanostructures with discrete band gaps, ballistic conduction, and one-atom thickness. Such properties make them ideal candidates to develop low-dimensional semiconductors, which are essential components in nanoelectronics. Atomically-precise control over the structure of NR (width, length, edge, doping) is crucial to fully exploit their potential. However, current approaches for the synthesis of NR suffer from several drawbacks that do not allow attaining such level of precision, therefore alternative methods need to be sought.
e-Sequence will develop an unprecedented approach that assembles stepwise small molecular building blocks into NR to specifically target the most important challenges in NR synthesis. Such approach will enable the preparation of an unlimited number of NR with atomically-precise control over their structure and with almost no synthetic and purification effort, exceeding the limits of existing methods.
The impact of e-Sequence will not be limited to NR synthesis but it will also extend to other disciplines, since NR are promising candidates to develop new technologies with applications in electronics, sensing, photonics, energy storage and conversion, spintronics, etc. e-Sequence ambitious research programme will be orchestrated by an independent scientist with an excellent track record of achievements in low-dimensional carbon nanostructures, and who has already established a fledgling and internationally competitive research group.
Info_Organizacion-participacion
Other Public and Private International research projects awarded to UPV/EHU (2014-2020)
INTERREG V |
See projects | |
COST Actions |
See projects | |
LIFE Action Grants |
See projects | |
Joint Programming Initiatives (JPIs) |
See projects | |
ERA NET Initiatives |
See projects | |
ERASMUS Programme |
See projects | |
OTHER EUROPEAN & INTERNATIONAL RESEARCH PROGRAMMES |
||
OTHER RESEARCH PROGRAMMES |
See projects | |
International research projects awarded to UPV/EHU (2007-2014)
| SUMMARY OF EUROPEAN AND INTERNATIONAL RESEARCH PROJECTS AWARDED TO UPV/EHU (2007-2014) | ||
|---|---|---|
| Programme | Subprogramme (if applicable) | List of projects |
| 7th Framework Programme (FP7) | Cooperation | Download (pdf, 245KB) |
| Capacities | Download (pdf, 120KB) | |
| People | Download (pdf, 112KB) | |
| Ideas | Download (pdf, 100KB) | |
| Interreg | Download (pdf, 700KB) | |
| Competitiveness and Innovation Programme (CIP) | Download (pdf, 95KB) | |
| Acciones COST | Download (pdf, 105KB) | |
| Otros Programas de Investigación Europeos e Internacionales | Download (pdf, 138KB) | |
info_masinformacionehurope
Contact information:
International R&D Office UPV/EHU
Email: proyectoseuropeos@ehu.es