A study developed a new model to improve climate balance in agriculture by identifying key factors contributing to greenhouse gas emissions and energy inefficiencies. Organic farming strategies, such as planting legumes and using soil less intensively, show promise for reducing emissions and improving yields.
Researchers from TUM designed a smart wall panel to assist elderly people in their homes. The panel provides access to vital information, entertainment, and assistance with daily tasks. It also detects critical health issues and contacts healthcare professionals for support.
Researchers at TUM and PSI have developed a method to visualize material fluctuations and nanostructures using X-ray microscopy. This technique relaxes the hard restrictions of immobility required for high-quality imaging, enabling the visualization of previously inaccessible objects.
The lipid molecules of membranes, also known as phospholipids, form a bilayer with heads pointing outwards and fatty acid chains hanging inwards. Scientists have discovered enzymes that transport phospholipids across membranes, allowing for the alignment of biomembranes during cell division.
The Visio.M project aims to develop a safe and efficient electric vehicle with a lightweight carbon fiber body structure. The design incorporates innovative materials and technologies, such as a monocoque chassis and ultra-lightweight gears, while maintaining the highest level of safety protection.
The Human Brain Project seeks to integrate fragmented knowledge of the human brain through supercomputer-based models. Researchers will test conceptual models using simulated and real systems, aiming to refine models and develop new technologies.
Researchers at TUM developed a cost-effective process to improve CMOS sensor performance using ultra-thin organic films. Spray-coating was found to be the most effective method, resulting in up to three times more sensitivity to light than conventional sensors.
Researchers developed a new testing reaction to identify active agents in mixtures of hundreds of substances. They found two compounds, cepafungin I and glidobactin A, which inhibit the proteasome, causing cancer cells to suffocate on their own waste.
Scientists have made significant breakthroughs in DNA nanotechnology by removing obstacles to design processes. They demonstrated the first validation of subnanometer-scale positional control and discovered a method for rapid folding and high-yield production of complex DNA-based objects, similar to protein folding.
Scientists have developed a transgenic zebrafish model, MitoFish, that enables non-invasive observation of mitochondria transport in living neurons, providing a new window into neurodegenerative diseases such as Alzheimer's and Parkinson's. This breakthrough model has the potential to accelerate the search for effective treatments.
Scientists have created a novel concept for self-reporting materials that utilize zinc oxide tetrapod crystals to detect internal damages in composite materials. The resulting composite material exhibits improved strength and emits light when exposed to UV light, providing a visual warning of potential failure.
Physicists at TUM and University of Michigan demonstrate the construction of synthetic membrane channels made entirely of DNA. The resulting pores exhibit electrical conductivity comparable to natural ion channels, suggesting potential applications as molecular sensors, antimicrobial agents, and nanodevices.
Researchers have engineered natural gut peptides to carry small steroids, improving insulin secretion, blood glucose, and body weight in mice. The study's findings suggest a potential breakthrough in treating type 2 diabetes and metabolic syndrome, with minimal risk of estrogen-related side effects.
Researchers developed a new X-ray technology that analyzes scattered radiation to detect emphysema in lungs. This technology helps identify disease progression and localization, aiding early diagnosis and treatment of Chronic Obstructive Pulmonary Disease (COPD).
Researchers successfully integrated a single functionalized photosynthetic protein system into an artificial photovoltaic device, retaining its biomolecular properties. This breakthrough demonstrates the potential for light-driven, highly efficient single-molecule electron pumps to act as current generators in nanoscale electric circuits.
The NAVVIS positioning system relies on imaging data to determine exact position and direction indoors. It compares a user's photo with stored database images to reveal location, ideal for maze-like buildings like TUM's campus.
A novel CT scanner with grating-based x-ray phase contrast technology demonstrates improved soft tissue visibility in preclinical research. The technology, developed by a German-Swedish-Belgian team, has the potential to revolutionize biomedical imaging and could lead to medical CT scanning applications in the future.
Researchers discovered two mechanisms that prevent neighboring membrane surfaces from sticking together due to hydration repulsion. The water molecules play a crucial role in maintaining the optimal distance between membranes.
A new imaging technique called near-field thermoacoustics has the potential to benefit medical practitioners and biology researchers. The technique uses harmless electromagnetic radiation to create high-contrast images of normal tissues, tumors, and other pathological changes.
Researchers have discovered a new compound with significantly higher anti-HIV activity and improved binding affinity to the CXCR4 receptor. This breakthrough has potential for developing new, more effective drugs against HIV-1 infections and related diseases.
The Technical University of Munich (TUM) is launching an internationally oriented career system with clear guidelines and transparent performance criteria for its 100 tenure track professorships. This system aims to recruit outstanding young researchers and provide them with real opportunities for upward career advancement.
A new communication system will connect 120 cars in real-life testing to optimize traffic routes, detect obstacles, and reduce energy consumption. The simTD consortium's system will also provide drivers with real-time recommendations on the best route and alert them to imminent hazards.
Dominik Schillinger's novel simulation concept enables direct integration of CAD geometry into finite element analysis, eliminating mesh generation. This technology is expected to significantly influence design processes in mechanical, automotive, aerospace, and civil engineering.
Researchers have identified a new biomarker, KIR4.1 autoantibody, in nearly half of MS patients, indicating its potential as an autoimmune response target. The finding could improve diagnosis and differentiate MS from other neurological diseases.
Researchers discovered that tumor cells release chemokine CCL2, which docks onto endothelial cells and activates the CCR2 receptor, making them permeable. This pathway enables tumor cells to migrate and metastasize.
Researchers have successfully identified natural elemental fluorine in a special fluorite called 'fetid fluorite' or 'antozonite', which emits an intense odor when crushed. The discovery resolves a long-standing debate and provides insight into the properties of fluorine, a highly reactive element.
Physicists at TUM successfully created and analyzed tin-100, a doubly magic nucleus with the fastest beta decay rate. The experiment confirmed predictions made by theoretical physicists and aims to improve understanding of heavy element formation during compact star explosions.
Researchers at TUM and DIfE discovered the hTAS2R4 and hTAS2R14 receptors responsible for Stevia's bitter taste. The study found that the structure of glycoside molecules plays a key role in determining sweetness or bitterness in Stevia.
Researchers discovered a strong correlation between pollen count and allergen release, but found significant variations in grass pollens across Europe. The study suggests measuring allergens may be more useful than forecasting pollen counts for allergy sufferers, offering new hope for treatment.
Researchers at TUM discovered that macrophages can originate from two distinct cell lines: one from hematopoietic stem cells and the other from yolk sac cells. The study reveals that yolk sac-derived macrophages migrate to organs during embryonic development and remain there, while blood-circulating macrophages are replaced by stem cells.
The Visio.M project aims to develop electric cars that are safe, inexpensive, and efficient. Researchers have overcome significant technological hurdles to create a vehicle with a power of 15 kilowatts and a maximum curb weight of 400 kg.
Scientists have found that kinesins, molecular motors responsible for transporting proteins and chromosomes, exhibit spiral motion during transport. This finding challenges the long-held assumption of straight-line movement, suggesting a new perspective on their role in cell function.
Lactocepin, an enzyme produced by Lactobacillus paracasei, selectively interrupts inflammatory processes in diseased tissue by degrading chemokines. This mechanism shows promise for developing new approaches to prevent and treat chronic bowel diseases.
A study published in Nature Communications reveals the progressive decline of function in cortical circuits due to Alzheimer's disease. Researchers observed correlations between beta-amyloid increases and dysfunctional developments in individual neurons, neuronal circuits, sensory cognition, and behavior.
Researchers at TUM developed DNA origami 'gatekeepers' that can filter biomolecules by size, allowing selective detection of specific target molecules. The device combines solid-state nanopores with custom-designed DNA structures for enhanced single-molecule sensing capabilities.
The Diesel Reloaded project redefines vehicles as integrated information and communication systems with modular, scalable architecture. It aims to address megatrends in environmental care, urbanization, and demographics by optimizing energy efficiency and adapting human-machine interfaces.
Research led by Prof. Annette Menzel found that airborne pollen concentrations have risen sharply in cities across Europe, particularly in urban areas, where the increase is three percent per year. Climate change and warmer temperatures are seen as key factors driving this trend, with rural areas also expected to be affected.
The new sensor uses nanometer-scale pores to selectively screen single molecules passing through a semiconductor membrane. The technology has the potential to detect and identify specific proteins in a single cell, with applications in medical research, pharmaceuticals, and fundamental biological studies.
Researchers have successfully built nano spiral staircases with tailored optical material from DNA, modifying light in specific ways. The findings confirm predictions and show promise for developing novel optical lens systems with negative refractive index.
The simulator uses a force model to represent the behavior of thousands of pedestrians, taking into account obstacles and destinations. This allows security services to track the consequences of specific decisions in real-life situations.
A study published in PNAS refutes the long-held hypothesis that organelle transport deficits cause axon degeneration in ALS. Instead, reduction and initiation appear to occur through different mechanisms, making axonal organelle transport an unsuitable therapeutic target.
Researchers have discovered a new magnetic structure, skyrmions, which can be moved with significantly less current than traditional magnetic fields. This phenomenon has the potential to revolutionize data storage and processing by reducing energy consumption and increasing efficiency.
Biochemists at TUM have determined the first crystal structure of an immunoproteasome, a specialized protein complex involved in immune defense. The study reveals atomic differences between immunoproteasomes and constitutive proteasomes, enabling the development of new drugs that selectively target the immunoproteasome.
Researchers at TUM have developed a new way to create highly efficient catalysts using metal clusters with unusual symmetry. These clusters, similar to Matryoshka dolls, can serve as catalysts in chemical reactions, such as hydrogen transfer and hydration reactions.
Scientists have created a graphene-based ultra-fast photodetector that can detect pulses as short as a few picoseconds. The device also generates terahertz radiation, which has properties of both particle and electromagnetic waves. This breakthrough could lead to advancements in material testing and medical treatments.
Researchers around Günter Wächtershäuser demonstrate a self-generating metabolism in hot water, which leads to the formation of genetic material and the first cells. This discovery suggests that life arose billions of years ago in volcanic-hydrothermal flow ducts.
Researchers from TUM proved that Hsp90 utilizes thermal fluctuations as the driving force for its conformational changes. Key findings show that the chaperone protein is highly flexible and can switch between conformations using random environmental collisions, saving valuable ATP energy.
Researchers at TUM introduce a new catalytic process that effectively converts biopetroleum from microalgae into diesel fuels. The process uses a novel catalyst and achieves the conversion of raw, untreated algae oil under mild conditions, producing diesel-range saturated hydrocarbons suitable for high-grade vehicle fuels.
A recent study published by the Technical University of Munich found no evidence to support the theory that fish oil consumption during pregnancy prevents excessive infant adipose tissue growth. The INFAT study, which monitored 208 expectant mothers and their children for over a year, showed no difference in infant adipose tissue growt...
Researchers at TUM develop process to build high-quality polymer networks with strong covalent bonds, resulting in stable and durable molecule carpets. The method eliminates weaving mistakes by correcting bad bonds during self-organization.