Major research activities in nanotechnologies include thin films and surface engineering (physics and applications) and application of ion and plasma methods for formation of nanostructures and nanomaterials.
The Center aims to stimulate nanoscience and microsystems technology activity in Lithuania and Baltic region by participating in European and global networks, research projects and by dissemination of information.
The group conducts interdisciplinary research focused on functional oxides (thin films, nanowires, and nanoparticles) and their use in emerging electronics and energy harvesting applications. High-k oxides, ferroelectrics, thermoelectrics, and semiconducting oxides are of interest. they have active projects in use of these materials for micropower generation, energy storage, nanodevices, and large-area flexible electronics.
This lab strives to integrate advanced nanomaterials via industry standard CMOS process compatible in-house micro and nanofabrication to build nanoscale devices specially nanoelectroncis for smart living and integrated systems for sustainable future (energy, health and security applications).
The group creates new nanostructured materials by designed synthesis to provide a platform for developing novel applications. Of particular interest are nanoporous (both inorganic and polymeric) materials which are characterized by large surface area, high porosity and uniform pores of molecular dimensions, and are very useful for applications in catalysis, separation, adsorption and gas storage.
The group focuses mainly on a variety of biological polymers and colloidal particles as components of thin films as coatings on planar and spherical surfaces. A special attention is given to coating of various living cells with polymer multilayers and nanoparticles (including gold, silver, magnetic and carbon nanospheres and nanotubes).
The PMNP Laboratory (Yan research group) is interested in high-accuracy, high-efficiency, resource-saving manufacturing technologies. Through micro/nanometer-scale material removal, deformation, and surface property control, new products with high added value are provided to micromechanical, optical, optoelectronic, and biomechanical applications. The group is exploring multidisciplinary R&D by interfacing with mechanical science, physics, material science and nanotechnology.
The center is one of the seven networking national research centers across the country in nanotechnology. The mission of the center is to provide higher education and advance research and knowledge in the emerging fields of nanotechnology.
Gain experience of research in the rapidly developing interdisciplinary areas of biophotonics, nanomaterials and nanophotonics, X-ray physics and computational modelling. Consists of taught components plus a research project. Ideal preparation for a higher physics degree or careers in scientific research or the financial sector.
Major research topics are Optical Properties of Mesoscopic Particles; Fabrication and Characterization of Novel Carbonaceous Nano-Materials; Surface Plasmon and Near-Field Optics; and Optical Waveguides and Other Photonic Devices
Research areas in Haeshin Lee's group are dealing with Design and synthesis functional biomaterials and inspired by mussels and geckos; Development of nano-carriers for a variety of pharmaceuticals; Development of new surface chemistry for material-independent surface modifications; Self-assembly of peptides and proteins; Protein folding in solutions; and development of new gecko-mimetic adhesives.
The Master's Programme in Nanotechnology provides a solid background in solid state physics, semiconductor devices, materials science and design, microelectronics, materials chemistry and an introduction to biotechnology. It offers a broad range of fundamental courses, e.g., quantum mechanics and solid state physics, but the programme is also experimentally oriented and provides several laboratory exercises as well as practical experience from advanced research tools for materials and device characterization.
Materials science has traditionally been an important research area at KTH with strong ties to the Swedish industry. In addition to the internationally highly competitive research in traditional materials, KTH has strong research in nanoscience and nanotechnology, which is used to study and tailor material structures.
The lab tries to construct and establish a new concept of semiconductor materials research, that is, semiconductor exciton photonics. Research includes growth techniques for low dimensional or nano-scale structures by atomic-scale controlling of surfaces and interfaces together with excitonic and photonic properties.
Research in the group involves searching for new optoelectrical phenomenons in atomic structures, which result from new quantum phenomenons as well as the co-existence of light and electrons. Design of new optoelectronics devices.
The research activities of this group focus on creating, understanding and controlling materials on the scale of nanometres. We have a strong focus on surface science, in particular, exploring chemical and molecular properties and processes at surfaces and at interfaces.
The Nanotechnology / Science double degree program aims to provide students with a broad education in disciplines that will underpin the science and technology, in particular nanotechnology, in the coming years. Our double degree course structure provides full coverage of subject areas, avoiding the compromises of shorter niche degrees where the supporting sciences are reduced to include the nanotechnology units.
This double degree program is offered by the Departments of Physics, Chemistry and Biochemistry, and enables completion of a Masters level nanotechnology degree in combination with a Bachelor of Science (Honours) degree focused on the disciplines that underpin nanotechnology. It provides nanotechnology students with a direct path from first year through to a Masters qualification. Graduates with qualifying grades will be eligible for entry into a Ph.D. in a relevant discipline area at La Trobe University. The double degree structure is chosen for the teaching of nanotechnology, as it requires knowledge of a broad range of supporting sciences and time to develop the required specialisation.