Access & Acceleration
Network for innovation and health
The Danish-German border region has a wealth of skills and resources to develop new innovative ideas, technologies and products in the health sector. Nowadays, traditional innovation processes do no longer automatically lead to success. The project Access & Acceleration strikes a new path and utilises the key success factor of innovations: a strong integration of technology users, companies and universities throughout all development stages.
Project duration: 04/2019 - 03/2022
Read more about the Access & Acceleration project here
Every year, tons of meat products are thrown away since food safety concerns lead to a substantial waste of safe-to-eat food, causing a large waste of resources. Currently, the expiration date for meat/fish is determined by poorly performed subjective sensory. In this project, we found a high sensitive and selective method for detection of cadaverine (marker for meat freashness) by using a cadaverine-specific binder, and the method is applied into integrated sensors in close collaboration with AmiNIC ApS
AutomationsBoost (Væksthus Syddanmark og RoboCluster)
Project duration: 03/2017 - 09/2021
Read more about the AmiNIC project here
Baltic TRAM aims to enhance innovation capacity and strengthen cooperation between analytical research institutes and companies, by providing industry with new ways of access to expertise, research facilities and open science and innovation concepts
Project duration: 03/2016 - 05/2019
Read more about the Baltic TRAM project here
CelltomThe visual representation of microscopic changes in human cells, which are connected to cancer, is crucial to their diagnosis and treatment. Modern microscopy techniques available at the university hospitals and at important research and development laboratories in the region on the Danish and German side make it possible to examine these changes quickly and reliably. In the CellTom project, new and complementary microscopy techniques will be developed and combined in order to improve diagnostics as validated by the hospital partners. Moreover, a virtual service center ‘VISION’ will be established where interested institutions and companies can access the new microscopy techniques.
Project duration: 04/2017 - 03/2020
Read more about the Celltom project here
Nanoparticles make their way into a broad range of products and help to optimize everyday life, but the tiny particles can also end up taking their toll on our health. Within the project consortium CheckNano, supported by Interreg5a, we will test products for possible harmful particles and develop a rapid test for the identification of toxic nanoparticles for later application in industrial production processes.
Project duration: 08/2018 - 07/2021
Read more about the CheckNano project here
Mechanical and photochemical stabilization of flexible organic solar cells
Project duration: 01/2017 - 09/2020
New materials for advanced power electronics. Boosting efficiency in conversion, transmission and consumption of green energy
Project duration : 03/2016 - 02/2019
Read more about the Green PE project here
IMPULSE-OPV - Integrated Molecular Plasmon Upconverter for Low-cost, Scalable, and Efficient Organic Photovoltaics
This VILLUM Experiment addresses the fundamental limitation on the solar cell efficiency by exploring a method for exploiting a great fraction of low-energy sunlight photons that are transmitted and lost in traditional solar cell designs. The possibility of conducting plasmon-enhanced molecular up-conversion of sunlight inside an organic solar cell will be investigated. We aim at redefining the theoretical maximum efficiency of organic photovoltaics (OPV) by frequency up-conversion and subsequent absorption of photons with energies below the absorption threshold of OPV. The method applies the quantum properties of the light absorbing molecules in converting two low-energy photons into a single high-energy photon. This novel approach could significantly increase the efficiency of OPV, making this low-cost lightweight technology an important contributor in the transition to renewable power sources.
Project duration: 00/2018 - 00/2020
Methodologies for Hyperspectral Thermal Imaging
Industrial PhD project in collaboration with Newtec Engineering A/S
Project duration : 08/2018 - 07/2021
MMTTechnishe Hochschule Lübeck, University of Lübeck and the University of Southern Denmark in Sønderborg have initiated the Interreg project “MikroMedTech” (MMT) that aims to develop and establish a Danish-German master's study program in the field of medical technology in the Danish-German Interreg program region. The planned international study course “Medical Microtechnology” further develops the strong positions and core competencies in the Danish-German program region in the areas of health and life sciences and strengthens the collaboration between business, industry and clinics within the health technologies.
Project duration: 04/2020 - 03/2023
In this project, novel reactively sputtered metal oxide films will be developed and integrated as contact layers in organic, hybrid and silicon photovoltaics for the first time. By utilizing composition- and microstructure-tuned metal oxides, high work function layers that are robust to standard PV production and operation treatments will be developed, resulting in PV modules with so far unseen performance and stability. The project partners are besides SDU (lead): UC Berkeley, LBNL Berkeley, IMEC, Aarhus University and Sorbonne University of Paris. DFF FTP research project 2.
Project duration: 10/2018 - 03/2022
An Innovation Project Center for Roll-to-Roll processed flexible devices
Project duration: 04/2016 - 09/2020
Read more about the RollFlex project here
SMART – Structures of Materials in Real Time
Ministry of Higher Education and Science
Project duration: 00/2019 - 00/2023
Read more about the SMART projekt here
SOLID ESS lighthouse: Hard materials in 3D
The Danish lighthouse SOLID has the vision to carry out cutting-edge research in neutron and synchrotron-based 3D imaging of hard materials. The combination of the separately superior sources, ESS and MAX IV, allows mapping the internal structure of a material, its formation and its change at all relevant length and time scales. At NanoSYD we will study cooling systems for power electronic devices. In particular we aim at understanding fundamental issues of flow of two-phase liquids and nanofluids in microporous materials and microfluidics devices. Neutron imaging is ideal for visualising such a flow due to its high penetration and good contrast with liquids. Complementary measurements with high-resolution Helium ion microscopy at SDU will clarify the role of structure between pores and surfaces in relation to nucleation and phase separation.
Danish roadmap for research infrastructures (lead: DTU)
Project duration: 11/2019 - 10/2024
High-efficiency solar cells by spectral transformation using nano-optical enhancement
Project duration: 05/2015 - 04/2019
Read more about the SunTune project here
Tuning the Photostability of Organic Photovoltaics Components
Project duration: 00/2020 - 00/2024
Read more about the DFF project here
Udvikling af smarte materialer: fra grundforskning til production
Development of Smart Materials and their integration into organic solar cells, and other flexible devices for energy conversion and storage solutions developed from roll-to-roll (R2R) technology at the R2R facility at the Mads Clausen Institute, SDU NanoSYD. The project specifically targets how to mature these materials, thin films and devices for future industrial production of new energy technologies.
Project duration: 00/2019 - 00/2022
Villum Experiment - NanoTrain: programable colloidal nanomachine
For years scientists have dreamt of nanomachines and nanorobots, which allows precise interactions with nanoscale objects. Various types of nanomachines has been invented and tested, however many of key bottlenecks remain. In the NanoTrain project we aim to develop a fully programmable nanomachine, with own efficient and directional propulsion system, which could take on board arbitrary cargoes and be easily controlled e.g. by external magnetic fields. Our concept based on sequential capillarity-assisted particle assembly approach (sCAPA) can open-up new possibilities for building nano-scale devices e.g. fully controlled shuttles devices for targeted delivery.
Project duration: 01/2021 - 12/2022