In the current issue of the journal Nature Reviews Microbiology, researcher Cheryl Nickerson and her team at the Biodesign Institute at Arizona State University highlight an innovative approach for studying cells in 3-D.
Just as landscape photographs shot in low-angle light dramatically accentuate subtle swales and mounds, depositing metal vapors at glancing angles turns a rough surface into amazing nanostructures with a vast range of potential properties.
By understanding the process behind the transformation itself, from both experimental and theoretical perspectives, researchers have taken a potential step toward creating a new class of exceptionally strong, durable materials that maintain their high-pressure properties -- including strength and superconductivity -- in everyday low-pressure environments.
Scientists with the Lawrence Berkeley National Laboratory (Berkeley Lab) have designed an electrical link to living cells engineered to shuttle electrons across a cell's membrane to an external acceptor along a well-defined path. This direct channel could yield cells that can read and respond to electronic signals, electronics capable of self-replication and repair, or efficiently transfer sunlight into electricity.
Ein Team um den LMU-Biophysiker Professor Dieter Braun und Wissenschaftler des LMU Spin-off NanoTemper Technologies GmbH haben eine Methode entwickelt, die erstmals die Interaktionen biologischer Molekuele aller und auch sehr unterschiedlicher Groessen untersuchen laesst - selbst der bislang nur schwer zu erforschenden Small Molecules.
Researchers at CEA, Joseph Fourier University and CNRS have developed a new approach combining protein crystallography and biomimetic chemistry for observing they key steps of a process essential to life: oxygen activation. This was achieved by creating a complex artificial metalloenzyme composed of a chemical catalyst and a protein and observing it via X-ray crystallography at the European Synchrotron Radiation Facility (ESRF).
A groundbreaking new equation developed in part by researchers at the University of Michigan could do for organic semiconductors what the Shockley ideal diode equation did for inorganic semiconductors: help to enable their wider adoption. Without the Shockley equation, the computers of today would not be possible.
Canary Foundation researchers at Stanford University received the National Cancer Institute (NCI) Early Detection Research Network (EDRN) Biomarker Development Laboratory (BDL) Grant. This award came at the same time as the U.S. Food and Drug Administration (FDA) approved an eIND for Canary Foundation research in the testing of molecular imaging agents for lung cancer.
In the framework of the ongoing work of the High-Level Expert Group on Key Enabling Technologies (KETs), this Open Day is organised by the Working Group on Nanotechnologies in order to consult a broad stakeholder audience on the needs and challenges of the sector, contributing to the development of appropriate policy measures to promote the industrial deployment of KETs.