The FLEX mission will track how plants react to drought, heat, and other environmental stresses, providing insights into climate-resilient agriculture and natural ecosystem protection. Forschungszentrum Jülich operates the German FLEX project office and contributes its scientific expertise to the mission.
Siibra enables access to different brain data types, including cells, molecules, and connections, through its interactive 3D web viewer and Python library. It facilitates reproducible data-driven analyses and simulations, and provides a common reference system for integrating multimodal sources.
An international team of physicists has achieved unprecedented accuracy in computing the magnetic properties of the muon using Jülich supercomputers. The result resolves long-standing uncertainty between theory and experiment, achieving a precision that reduces the uncertainty by a factor of 1.6.
New research proposes that rock grains bond together at microscopic contact points, governing friction and stress release during earthquakes. This finding challenges existing models and suggests tectonic plates behave differently than previously assumed.
Jülich researchers found that long-lived contrails usually form within existing natural ice clouds, rather than clear skies. This has significant climate implications, as contrail cirrus clouds can enhance the warming greenhouse effect or have a cooling effect depending on surrounding conditions.
Jülich researchers create model to detect ballistic electrons in two-dimensional materials, enabling the identification of lossless current flow. This breakthrough could lead to the development of robust qubits and energy-efficient circuits.
A recent study uncovered the mechanism of action of PspA, a protective protein that actively reshapes cell membranes without requiring any external energy. The findings shed light on a fundamental biological repair process and may have potential biotechnological applications.
Researchers at Forschungszentrum Jülich have engineered a new class of organic photoelectrochemical transistors that can convert light into electrical signals and mimic brain synapse behavior. The technology has potential applications in visual prostheses, medical devices, and brain-machine interfaces.
Researchers at Forschungszentrum Jülich successfully created a 2D half metal, a material that conducts electricity using one type of electron spin. The alloy, composed of iron and palladium, enables energy-efficient spintronics beyond conventional electronics.
Researchers have developed a new material, CSiGeSn, that combines the stability of silicon with tunable optical properties. This allows for the creation of components beyond pure silicon capabilities, such as optical and quantum circuits.
Researchers at Forschungszentrum Jülich have discovered a property of crystal structure called chirality that influences the orbital angular momentum of electrons. This could lead to a new class of electronic components capable of transmitting information with exceptional robustness and energy efficiency.
Researchers have introduced novel memristive components that offer significant advantages over previous versions, including increased robustness and functionality. These properties could help address the problem of catastrophic forgetting in artificial neural networks.
Researchers from Forschungszentrum Jülich and their partners have successfully developed the first electrically pumped continuous-wave semiconductor laser composed exclusively of elements from the fourth group of the periodic table, or the 'silicon group'. This new laser is directly grown on a silicon wafer, offering new possibilities ...
Researchers have gained new insights into the interaction between membrane proteins Vipp1 and PspA and their role in protecting vital cellular processes. The study reveals that these proteins form carpet-like structures, ring complexes, and tubes to stabilize and repair damaged cell membranes.
Scientists found that a flyby of an alien star billions of years ago can explain the orbits of trans-Neptunian objects and the formation of irregular moons. The flyby caused some objects to be hurled into our solar system, which were then captured by giant planets as moons.
Researchers developed a quantum sensor using single molecules to detect electric and magnetic properties of atoms with atomic-scale spatial resolution. The sensor enables the exploration and understanding of materials at their fundamental level.
Scientists at Forschungszentrum Jülich used a quantum annealer to model a real-life quantum material and showed that the device can mirror microscopic interactions between electrons. This advancement has significant implications for solving complex material science problems and developing energy-efficient electronic devices.
Researchers found that a high single dose of creatine can temporarily improve cognitive performance reduced by sleep deprivation. This was seen in improvements in processing capacity and short-term memory.
A team of researchers has revised the fundamental equation for superconducting quantum bits, revealing that harmonics are superimposed on the fundamental mode, resulting in corrections that can lead to quantum bits that are 2-7 times more stable. Experimental evidence from multiple laboratories supports this finding.
Researchers at Forschungszentrum Jülich have programmed an AI that can recognize patterns in complex data sets and formulate them in a physical theory. The AI uses physics for machine learning to simplify complex interactions and build up a new theory.
Researchers at Forschungszentrum Jülich discovered a special form of protection for charge carriers in perovskite solar cells, allowing them to remain effective over longer periods. This unique mechanism is responsible for the high efficiency of these cells, which are also relatively inexpensive to produce.
Researchers have elucidated the metabolic pathways of Halopseudomonas bacteria that break down plastic coatings. The study shows the bacteria can rapidly degrade polyester polyurethanes, making it a promising solution to global waste problems.
Researchers from Jülich, China, and Sweden have created and observed stable hopfion rings in a solid, which can move along skyrmion strings, enabling flexible information carriers. The discovery breaks open new research directions for 3D magnetic particles.
Researchers have developed a retina-like biochip that mimics the eye's visual pathways, using conductive polymers and light-sensitive molecules. The chip's non-toxic organic components and flexibility make it suitable for integration into biological systems, paving the way for new treatments for neurological diseases.
Scientists have successfully produced a thin sheet of molybdenum, similar to graphene, with impressive properties. Molybdenene exhibits mechanical stability, freely moving electrons, and is an interesting candidate for catalysts and advanced imaging techniques.
Researchers at Forschungszentrum Jülich's Nuclear Physics Institute have searched for dark matter using a specialized particle accelerator and detected axionlike particles. The experiment utilized polarized beams to measure the electric dipole moments of charged particles, revealing a promising method in the search for dark matter.
Scientists at Forschungszentrum Juelich develop bilayer graphene quantum dots with near-perfect symmetry, allowing for efficient long-distance coupling and robust spin-state detection. This breakthrough has significant implications for the realization of large-scale quantum computers.
Researchers have developed a new germanium-tin transistor that exhibits improved electronic properties compared to silicon-based transistors. The material combines the benefits of germanium and tin, resulting in enhanced performance at low temperatures.
The formation of fine bubbles in catalyst pores enhances gas generation reactions from liquid phase systems. This leads to a significant increase in the release of hydrogen per unit time, making the technology more compact and powerful. The discovery provides new insights into performance-limiting factors in heterogeneous catalysis.
Physicists at Forschungszentrum Jülich and RWTH Aachen University have successfully transferred electrons over several micrometres on a quantum chip, paving the way for a scalable quantum computer architecture that can support millions of qubits. The 'quantum bus' approach enables the coupling of qubits without the need for extensive c...
Researchers developed a new method combining cryo-EM with iDPC-STEM, achieving sub-nanometer resolution for protein structures. This technique expands possibilities for structural analysis of heterogeneous and single-particle samples.
Researchers at Forschungszentrum Jülich have discovered a new rule for orbital formation in chemical reactions, showing that momentum space distribution plays a crucial role. This finding provides new insights into the behavior of molecules and metal surfaces, enabling more accurate predictions of chemical reactions.
Researchers at Forschungszentrum Jülich have discovered how the topological properties of multilayer WTe2 systems can be changed by studying them under a scanning tunneling microscope. The study found that twisting the layers creates a moiré lattice that modulates electrical conductivity.
Magnetic antiskyrmions are stabilized in magnetic crystals and exhibit unique properties. The Forschungszentrum Juelich team successfully demonstrated the existence of these objects through high-resolution electron microscopy and advanced simulations.
The webinar discusses the development of formal and community-based standards for predictive computational models in personalized medicine. Topics include ISO-Technical Specifications and collaborative research for optimizing health-related data use. A live Q&A session will also be held, providing real-time guidance for participants.
Researchers compiled their research results in a detailed review article to provide insight-driven material optimization for memristive memory cells. The article explains the physical principles and models behind these cells, which can function like artificial synapses in neuromorphic circuits.
Researchers at Forschungszentrum Jülich successfully integrated a topological insulator into a conventional superconducting qubit, demonstrating a novel hybrid qubit. This breakthrough could lead to more robust and fast quantum computing systems.
Researchers have discovered how genetic variations of the oxytocin receptor affect hormone signaling inside brain cells. The mutated variant is more active and stable than the normal receptor, contradicting previous classifications. This finding provides new starting points for developing targeted therapies for autistic patients.
Researchers from Forschungszentrum Jülich have developed a perovskite solar cell with exceptional stability, retaining 99% of its initial efficiency after 1450 hours of operation. The new design features a double-layer polymer structure that protects the contact point and ensures stable conductivity.
Researchers successfully manipulated a single molecule into an upright position and measured its stability, gaining insights towards fabricating electrical components and circuits at the atomic level. The findings have potential applications in creating ultrasensitive sensors, quantum dots, and quantum computers.
Researchers from Germany, Sweden, and China have discovered braided structures of nanoscale skyrmions in alloys of iron and germanium, offering new insights into their properties and potential uses. These complex shapes stabilize the magnetic structures, making them interesting for applications in information processing.
The new infrared detector can make two technically important ranges of infrared radiation visible, previously not covered by conventional photodiodes. The sensor can distinguish between substances based on their different absorption properties in the NIR and SWIR range.
Researchers discover that a slightly acidic environment is conducive to the formation of Alzheimer's disease-causing toxic protein aggregates, known as Aβ oligomers. The study also reveals that endosomes and lysosomes play a crucial role in their development.
A new experiment demonstrates the stability of quantum interactions between coupled atoms under electron bombardment. The findings suggest that special quantum states may be realized in quantum computers more easily than previously thought.
A team of researchers has discovered the dominant mechanism behind the formation of formic acid in the atmosphere, a key contributor to air acidity. The study reveals that formaldehyde reacts with water molecules to produce methanediol, which then oxidizes to form formic acid.
Researchers at Forschungszentrum Jülich developed a nanostructured, transparent material for the front of solar cells, achieving efficiencies of up to 23.99%, surpassing crystalline silicon cells. The new design offers passivation, transparency, and high electrical conductivity, paving the way for large-scale industrial production.
Germany's Forschungszentrum Jülich and semiconductor manufacturer Infineon join forces to develop a semiconductor-based quantum processor using 'shuttling' of electrons. The QUASAR project aims to scale up quantum computing for industrial production.
Researchers at Forschungszentrum Jülich and RWTH Aachen University have proposed a circuit for quantum computers that inherently protects against common errors through passive error correction. This design enables the creation of a large number of qubits, crucial for building a universal quantum computer.
Scientists have made a breakthrough in tracing electron transfer processes at metal-molecule interfaces, allowing for the observation of electron excitation pathways in real-time. This achievement has fundamental implications for optimizing interfaces and nanostructures, potentially leading to new technologies.
Scientists from Jülich researchers found an alternative cause for the dip in energy spectrum attributed to the Kondo effect. They propose new experiments based on their predictions, suggesting that much of what was thought about the Kondo effect needs re-examination.