Density plot of the power output of an energy-converting network that consists of interacting nano-machines illustrated by the spheres. The power increases from red to blue color, thus in the synchronization phase corresponding to the area enclosed by the white dashed lines, the output of the network is maximized.
3D SEM Microstructure of 1st Generation MoSiBTiC alloy.
A schematic diagram of phase cancellation and microwave attenuation process. The fluffy structure of PANI/Fe ferrite composite can highly increase the transmission path of microwave, and the multiple reflections can enhance the microwave attenuation efficiency of the absorber. Thus, the microwave attenuation capability of PANI/Zn ferrite composites mainly comes from the enhanced effect of fluffy structure, multiple reflections, interfacial polarization, magnetic loss and dielectric loss. Moreover, if the relationship between the coating thickness and the frequency of incident microwaves matched well with the quarter-wave thickness criteria, the incident microwaves would vertically enter the absorber inside, as shown in this figure.
Dr Amol Choudhary (left) and Professor Ben Eggleton, Director of Sydney Nano, in one of the photonic laboratories at the Sydney Nanoscience Hub.
Five metal elements are blended here in a small cluster on a one-nanometer scale.
With support from the National Science Foundation's TRIPODS+X program, Lehigh University's Josh Agar is partnering with the University of California at Berkeley to increase the speed of materials discovery and development, with implications in fields including electronics, healthcare and energy systems.
This is Christian Leutenantsmeyer (L) and co-author Josep Ingla-Aynés.
The powder sample is insoluble, therefore fabrication of devices using wet processes is not possible.
With the aid of the powerful X-ray free-electron laser at SLAC in California, HZDR researchers were able to investigate the plasma processes on the small scales of a few nanometers and femtoseconds on which the turbulent laser interaction with the particles to be accelerated takes place.
(A) Dropwise condensation on a hydrophobic plain surface. (B) Filmwise condensation on a hydrophilic plain surface. (C) Sucking flow condensation on a hi-mesh surface consisting of the droplet-to-film coalescence and film-to-droplet sucking flow for efficient surface refreshing and droplet growth. (D) Scanning electron microscopy (SEM) image of the hi-mesh surface consisting of woven mesh wires bonded onto a copper substrate. (E) SEM image showing the high-density nanostructures covering the mesh wires and substrate. (F) Time-lapse sucking flow condensation figures on the hi-mesh surface. (G) Sustaining enhanced condensation heat transfer on the hi-mesh surfaces.
Tested combustion chambers as a component of a serial SGTE is one of the starting stages of the project on creation of a series of new gas turbine drives for energy units with capacity of 400 kW working on biofuel.
In the research, images of handwritten digits will be encoded into what are called 'spike train stimuli,' similar to a two-dimensional bar code. The encoding of the spike train will then be optically applied to a group of networked in vitro neurons with optogenetic labels.
Eduard Kerkhoven, Project leader, Computational Metabolic Engineering, Department of Biology and Biological Engineering, Chalmers University of Technology
Naira Hovakimyan, a professor of mechanical science and engineering, directs the Advanced Controls Research Laboratory at the University of Illinois at Urbana-Champaign.
Manuelli uses the DON system and Kuka robot to grasp a cup.
Left to right: Yuanxun "Ethan" Wang, Tatsuo Itoh, Zhi Yao, and Rustu Umut Tok.
Atomic force microscopy imaging of 2D GaPO4 and piezoelectric measurements at varying applied voltages
A graphic shows steps to bioelectronics.
Joshua Pearce, professor of material sciences and electrical engineering at Michigan Technological University, has found a way to lower cost of solar power by 10 percent, which could drive investment in the industry.
