The vision of BIODOT is a hybrid bio-organic technology for transduction of dynamical phenomena of biosystems in-vitro. The device that will be developed is based on organic ultra thin film transistors integrated with microfluidics.
The Biologically Inspired Materials Institute (BIMat) was established by NASA under the University Research, Engineering and Technology Institute (URETI) program. The principal goal for BIMat researchers is to develop bio-nanotechnology materials and structures for aerospace vehicles.
This EU project seeks to provide Europe with a major time advantage over their main international competitors by developing a bionanotechnological device that can be used as a nanoactuator/biosensor, which also provides a novel interface between the Biological and Silicon Worlds.
BioNanoNet Forschungsgesellschaft mbH (BioNanoNet) is an Austrian scientific network that specializes in the Key Enabling Technologies nanotechnology and biotechnology on a national and international basis, with the emphasis on (1) nanotoxicology, (2) sensortechnologies, as well as (3) health, safety, (nano-)medicine and additionally supports projects in coordination, management, dissemination and communication. BioNanoNet is a European key player in the field of nanosafety, specialised in developing nano-safety-by-design strategies together with researchers and industry.
The BIOTEX project aims at developing dedicated biochemical-sensing techniques compatible with integration into textile. The consortium includes two research institutes in the field of micro and nanotechnology.
The mission of the group is to provide a rewarding and nourishing atmosphere of hands-on cutting edge research for students to develop and grow professionally and technically and use as an opportunity to springboard to a professional career that will benefit them and society.
The department has a strong record of research, with faculty involved in both experimental and theoretical areas. Some areas of current interest are: novel electronic materials; carbon nanotubes and nanotube arrays; theory of marginal Fermi liquids; optical and transport properties of low- dimensional condensed matter systems; novel superconductors.
The Nanoscale Energy-Fluids Transport (NEFT) laboratory experimentally studies energy and fluids transport at the nanoscale. Current investigations include: Exploring anomalous transport phenomenon in 1-D or 2-D confined nanochannels; Enhancing ion/molecule transport in batteries and fuel cells using nanostructured materials; Improving phase-change heat transfer based on patterned micro/nanostructures; Developing new nanofluidic devices for biomolecule sensing and separation.
Research in Optical Characterization and Nanophotonics (OCN) laboratory focuses on developing and applying advanced optical characterization techniques to the study of solid-state and biological phenomena at the nanoscale.
Shiladitya Sengupta's laboratory is focused on developing engineering solutions for complex disease. The team's research lies at the interfaces of fundamental biology, medical applications and nanoscale engineering, where basic understanding of biology inspires the development of novel technology or medical applications.
Highly interdisciplinary and translational, the group's research is focused on multifunctional, nanoparticle-based drug delivery systems. They seek to improve nanoparticle synthesis and formulation and its therapeutic efficacy. Additionally, they develop robust engineering processes to accelerate translation of nanoparticle-based drugs into the drug development pipeline. At the same time, they emphasize a fundamental understanding of the interface between nanomaterials and biological systems.
With the global benefits of the new science of nanomedicine growing each year, the British Society for Nanomedicine has been created to allow open access for industry, academia, clinicians and the public to news and details of ongoing research throughout the UK.
The lab of Prof. Kenneth Breuer is active in research covering a wide variety of topics, including: Micron and nanometer scale fluid mechanics; Animal motion, in particular, bat flight and bacterial motility; Turbulent shear flows and shear flow control; Diagnostic methods for fluid mechanics.
The Institute for Molecular and Nanoscale Innovation (IMNI) was founded at Brown University in 2007 as an umbrella organization to support centers and collaborative research teams in targeted areas of the molecular and nanosciences. IMNI is a polydisciplinary venture with 55 faculty participants representing nine departments across campus. IMNI serves as a focal point for interaction with industry, government, and our affiliated hospitals.
The R. Hurt laboratory at Brown focuses on the creation of 3D nanomaterial architectures and new nano-enabled technologies. They also study the potential adverse effects of emerging 2D nanomaterials on human health and the environment and work to identify safe design rules rooted in fundamental materials chemistry and physics that will enable their successful development and commercialization.