Researchers at The University of Tokyo's Institute of Industrial Science have developed a method to integrate living muscle into robots, overcoming previous issues with force and function. The resulting biohybrid robots achieved remarkable movement and continued muscle function for over a week.
Researchers at The University of Tokyo Institute of Industrial Science describe a new method for creating one mini neuron network model, using microscopic plates to connect neurons together one cell at a time. This approach guides neurons to grow in a defined way and form functional communication hubs.
A team of researchers from the Institute of Industrial Science at The University of Tokyo investigated glass-forming behavior by simulating two model systems. Their findings reveal that a single parameter governs the process, allowing for potential applications in various fields, including materials science and engineering.
Scientists at the University of Tokyo's Institute of Industrial Science have successfully created chiral nanostructures from gold particles by exploiting plasmon resonance. The method uses circularly polarized light to induce chirality in electric fields, which are then transferred to a dielectric material.
A Japanese research team has developed an automated robot that greatly speeds up the collection and assembly of 2D crystals to form van der Waals heterostructures. The robot can detect 400 graphene flakes an hour, stacking four layers in just a few minutes with minimal human input.
Researchers from The University of Tokyo's Institute of Industrial Science discovered that water's tetrahedral structure is key to its unique properties. The study found that the delicate balance between order and disorder in water allows it to exhibit high structural flexibility, resulting in unusual behavior such as expansion upon fr...
The study reveals a clear correlation between structural order and dynamics in supercooled liquids, indicating that glass formation is thermodynamic. The researchers found that the link between slow alpha and fast beta modes has a common structural origin, resolving two issues at once.
Research at The University of Tokyo's Institute of Industrial Science reveals that water and silica diverge when cooled due to differences in atomic arrangement. Water's strong orientational order leads to easy crystallization, whereas silica's weak ordering results in supercooling and glass formation.
Researchers at the University of Tokyo developed a blood vessel-on-a-chip technology that recreates a human blood vessel and shows how new capillaries grow from a single vessel. The technology can be used to develop drugs targeting angiogenesis, which is a key process in cancer growth.
Researchers at The University of Tokyo's Institute of Industrial Science have developed a new probe to track vitamin C levels in the body using fluorescence. This breakthrough allows for precise monitoring of ascorbic acid concentrations, which has potential applications in cancer treatment.
Japanese researchers developed a novel phase-field model to study phase separation in binary mixtures within porous materials. The model revealed a clear relationship between demixing and wetness, influenced by the topology of the pore structure.
Two researchers at The University of Tokyo's Institute of Industrial Science have revealed new insights into the behavior of supercooled liquids when they are made to flow by shearing. They found that the two-body structural entropy is the key quantity to understanding shear thinning, which is an industrially very important process.
Researchers at University of Tokyo's Institute of Industrial Science report the first direct observation of gold ions moving in liquid using ADF-STEM. The study reveals heterogeneous dynamics and trapped gold ions in small spaces, which could improve battery performance and energy efficiency.
Researchers at The University of Tokyo's Institute of Industrial Science used advanced TEM to study gas dynamics and vibrational changes in simple gases at high temperatures. They found that some gases vibrated faster with increasing temperature, while others did not, highlighting the importance of chemical bonding in these processes.
Researchers at The University of Tokyo's Institute of Industrial Science have developed a semi-transparent solar cell that absorbs red and blue light while letting green through. The new material, based on perovskite, is able to retain an impressive power conversion efficiency of around 10% despite being made much thinner.