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SFU’s New Centre for Soft Materials Features Latest Technologies for Soft Material Research

For scientists and engineers, analysing “soft materials” such as plastics, elastomers and composites can be a tricky business.

31 Jan 2014

Researchers Clock Movement of Plasmon-Generated Electrons from Nanorods to Graphene

Plasmonic nanoparticles developed at Rice University are becoming known for their ability to turn light into heat, but how to use them to generate electricity is not nearly as well understood.

31 Jan 2014

Waters Launches Nano- to Microscale UltraPerformance LC System Rated for 15,000 psi Operations

Waters Corporation today introduced the new Waters® ACQUITY UPLC® M-Class System, an industry-first nano- to microscale UltraPerformance LC® (UPLC®) system rated for 15,000 psi operation. Coupled to Waters mass spectrometers, the system delivers the sensitivity to quantify and to identify vanishingly small concentrations of key molecules.

29 Jan 2014

UT Arlington Researcher Proves Importance of Mass at Nano-Scale

A UT Arlington engineering professor has proven that the effect of mass is important, can be measured and has a significant impact on any calculations and measurements at the sub-micrometer scale.

23 Jan 2014

Researchers Report One-Atom Thick Molybdenum Sulfide Film as Effective Hydrogen-Creating Catalyst

Researchers at North Carolina State University have shown that a one-atom thick film of molybdenum sulfide (MoS2) may work as an effective catalyst for creating hydrogen. The work opens a new door for the production of cheap hydrogen.

From North Carolina State University 23 Jan 2014

Researchers Develop Process Friendly Technique for Cooling Microprocessor Chips Through Carbon Nanotubes

"Cool it!" That's a prime directive for microprocessor chips and a promising new solution to meeting this imperative is in the offing. Researchers with the U.S. Department of Energy (DOE)'s Lawrence Berkeley National Laboratory (Berkeley Lab) have developed a "process friendly" technique that would enable the cooling of microprocessor chips through carbon nanotubes.

From Lawrence Berkeley National Laboratory 23 Jan 2014

Physicists Engineer Novel Magnetic and Electronic Phases in Ultra-Thin Films

Physicists have engineered novel magnetic and electronic phases in the ultra-thin films of in a specific electronic magnetic material, opening the door for researchers to design new classes of material for the next generation of electronic and other devices.

22 Jan 2014

Nanoanalysis News

SFU’s New Centre for Soft Materials Features Latest Technologies for Soft Material Research

Researchers Clock Movement of Plasmon-Generated Electrons from Nanorods to Graphene

Waters Launches Nano- to Microscale UltraPerformance LC System Rated for 15,000 psi Operations

UT Arlington Researcher Proves Importance of Mass at Nano-Scale

Researchers Report One-Atom Thick Molybdenum Sulfide Film as Effective Hydrogen-Creating Catalyst

Researchers Develop Process Friendly Technique for Cooling Microprocessor Chips Through Carbon Nanotubes

Physicists Engineer Novel Magnetic and Electronic Phases in Ultra-Thin Films

Researchers Quantify Plasmonic Heating in Metal Nanowires

New LAMP Tool at LCLS Enables Precise Exploration of Light-Matter Interaction

TEM and APT Combined to Study Development of Hierarchical Microstructure of Superalloys

Novel Semiconductor Born from Graphene and Glass

Novel Nanocomposite for Dual Energy Storage and Pollution Control

2D Materials Powering the Future of Neuromorphic and Sensory Devices

The Future of Multiplex Nanosensors in Food Safety

Vermiculite Nanosheets: A Natural Route to Wide Band-Gap Antiferromagnetic Semiconductors

Conversations on AFM: How AI is Automating Scanning Probe Microscopy

Breaking Barriers in Thin-Film Deposition with ATLANT 3D’s DALP Technology

Overcoming Nanogold Production Challenges

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Next Generation Magnetic Force Microscopy with PeakForce Probes

Unlocking Material Behavior at the Microscale Using Nanoindentation

Utilizing Back-Gate Voltage Biases for 2D Materials