Researchers at Delft University of Technology have demonstrated the avalanche effect in semiconducting nanocrystals, which could lead to higher output and lower manufacturing costs for solar cells. The findings show that specific crystals can release two or three electrons per photon, potentially increasing output to 44%.
Delft University of Technology researchers have observed the spontaneous repair of DNA damage in real time, revealing a key mechanism for repairing breaks. This insight is crucial as errors in this process can lead to cancerous cell development.
Researchers at TU Delft have mapped the process of light passing through small holes, promising a significant improvement in Terahertz microscopy and microspectroscopy. The study confirms the Bouwkamp model and reveals that sufficient light can pass through even tiny holes, enabling measurements near the hole.
The P2P-Next project aims to create a Europe-wide 'next-generation' internet television distribution system based on P2P technology, allowing audiences to stream and interact with live content. The research project will also explore community building around favorite content via a personalized system.
Scientists successfully rotate single electron's spin using electric fields, a crucial step for future quantum computing. This breakthrough clears the path for a more powerful and efficient quantum computer.
Delft scientists observe topotecan's effect on DNA molecule loops, revealing mechanism of TopoIB protein in cell division. They use magnetic spheres and magnets to manipulate a single DNA molecule, allowing them to study the enzyme's action live.
Delft researchers achieved the first 'controlled-NOT' calculation with two qubits using superconducting rings, paving the way for more complex quantum calculations. This breakthrough demonstrates a crucial step towards creating a functional quantum computer.
Researchers at Delft University of Technology used neutron-diffraction research to study the effects of nanostructuring on Li-ion battery performance. They found that the phase balance changes significantly when electrode particles are scaled down, leading to reduced battery performance.
Researchers at Delft University Technology replicate cylindrical fluid flow to generate slowly growing magnetic field. New experimental facilities enable more realistic replication of Earth's magnetic core.
Researchers from TU Delft have successfully applied seismic interferometry to extract information from seismic noise, which can be used to search for new oil fields. The method has shown promising results in a desert in the Middle East.
A team of researchers at Delft University of Technology used HREM to observe collective transport of gold atoms in a thin layer. The findings demonstrate a rapid progress in real-time nano-microscopy, enabling the precise positioning of atoms with accuracy.
A miniscule detector developed by Merlijn Hajenius at Delft University of Technology has shown promising results for studying cosmic radiation and its impact on the universe. The detector, which uses a superconductor to detect terahertz frequencies, offers new insights into star systems and planetary birth.
Researchers at Delft University of Technology and the Colorado School of Mines have developed a unified theory to extract meaningful signals from acoustic noise. This theory enables the determination of parameters in flowing media, viscous media, and electrokinetic coupling parameters of porous reservoir rock.
The Delft University of Technology has successfully created the world's smallest piano wire, measuring approximately 2 nanometers in diameter. The researchers used carbon nanotubes and developed a model to predict their vibrations, which can be used for mass sensors and other applications.
Researchers from Delft University of Technology successfully measured transport through a single atom in a transistor, offering insights into the behaviour of dopant atoms in silicon. The individual behaviour of dopant atoms is a stumbling block to further miniaturisation of electronics.
A four-year, €4 million joint research programme between TU Delft and Shell aims to develop new technologies for sustainable mobility. The programme will focus on hydrogen production, traffic regulation models, Li-ion battery improvements, solar energy conversion, and methane extraction.
The Nereda TM purification method uses oxygen-using bacterial granules to purify water, offering advantages over conventional processes in terms of space and energy requirements. This technology has been nominated for the Dutch Process Innovation Award and is currently being tested on a larger scale.
Separating urine from wastewater can significantly reduce energy consumption, decrease sewer stench, and protect pipes. By purifying 50% of urine, 25% less energy is needed for the entire purification system.
Scientists at Delft University of Technology successfully controlled and addressed individual microtubules by applying electrical forces to steer them towards specific directions. This breakthrough allows for efficient transportation of molecules within biological cells, opening new avenues for nanotechnology applications.
A Delft mathematician has developed a new method for calculating the effectiveness of protective clothing against NBC-weapons using computer modeling. The research aims to determine at which point in time the clothing loses its protective function, allowing for more efficient design and improvement.
Varibel, a new Dutch invention, provides directional sensitivity and improves speech understanding for seniors with hearing impairments. The glasses use microphones to selectively intensify sounds from the front while dampening surrounding noise.
Researchers at Delft University of Technology have observed flowing nano ripples using an electron microscope, challenging existing theories on their formation. The observations reveal that the waves flow in the same direction as the incoming ions, contradicting previous assumptions about the movement of nano ripples.