Researchers at TU Dresden and Ulm University developed a new synthetic route to create crystalline 2D polymers with defined structures. The 2D polymers have promising properties for electronic components and systems, including superior charge transport and chemiresistivity.
Researchers developed a framework to describe the process of ultrastructural morphogenesis of molluscan shells. They demonstrated that mineral phase growth is guided by regulating chemical and physical boundary conditions, influencing shell architecture and evolution.
The Else Kröner-Fresenius Center for Digital Health Dresden aims to harness digital technologies in medicine to improve patient care. The center will provide a practical framework for patient-orientated research and establish an eHealth campus directly on the University Hospital's premises.
Researchers found that glial cells, which make up 80% of brain cells, contribute to seizures by releasing glutamate, a chemical that transmits signals between neurons. The study suggests that targeting glial cells may lead to new treatments for epilepsy.
Researchers have uncovered a new mechanism for tooth repair by identifying a new population of mesenchymal stromal cells that contribute to dentin formation. These cells send signals to control cell production through the molecular gene Dlk1.
Researchers at TU Dresden have created a method to free trapped photons in OLEDs, boosting efficiency by up to 76.3%. The technique uses reactive ion etching to generate controllable nanostructures that can be tailored for optimal outcoupling.
Researchers found that adjusting a single molecular parameter, the molecular quadrupole moment, can tune the energetics in organic films. This effect enhances long-range Coulomb interactions in organic materials.
A team of researchers has identified highly-connected cluster of 'leader' cells in the pancreas that coordinate insulin response and help understand how diabetes develops. By selectively deleting these leader cells, they disrupted the level of coordination in subsequent responses to glucose.
Researchers discovered a molecular mechanism that allows cancer cells to regenerate and evade therapy, but found treatments that can target these cells. The study provides a new logic for identifying therapies that can kill hard-to-kill cancer cells.
Theoretical and experimental investigations confirm the Marcus hopping model for electronic transport in organic films. The study verifies the 'inverted Marcus regime' where higher voltage generates lower current, improving understanding of organic devices.
Researchers discovered that impaired FUS protein-protein interactions contribute to ALS degeneration, but drug-induced autophagy reduces pathological processes linked to aberrantly accumulated FUS. Stimulating autophagy rescued RNA-binding proteins and reduced neuronal death in cell culture experiments.
Scientists uncover that saffron crocus is a hybrid of wild Crocus cartwrightianus cytotypes, resolving centuries-long debate. Genome sequencing and comparative analysis reveal fusion of two individual genomes, confirming the plant's autotriploid nature.
Researchers at TU Dresden are developing a technical assistance system that allows users to control devices using only tongue movements. The system, called Zungenmaus, aims to maintain everyday skills in patients with sensory and motor function impairments.
Researchers at TU Dresden develop programmable transparent organic luminescent tags that can be written, read, and erased using light. The tags use a thin layer of organic molecules that can emit light when exposed to ultraviolet radiation.
Researchers have identified key parameters influencing electrical conductivity in doped organic conductors, enabling further increases in performance. The study reveals molecular complexes with oppositely charged molecules play a crucial role in determining electrical conductivity levels.
Researchers at TU Dresden found that increasing the number of neurons generated from stem cells improves the sense of smell in mice. This breakthrough suggests that stem cells can be used to enhance brain function and may lead to new therapeutic approaches for neurodegenerative diseases such as Alzheimer's and Parkinson's.
The DFG funds two new Collaborative Research Centres at TU Dresden to investigate comprehensible software systems and correlated magnetism. The centres aim to create predictable and understandable computer systems, as well as develop materials with unique magnetic properties.
Researchers discovered that brain-enriched miRNA (miR-124) plays a crucial role in neuronal survival, contrary to previous assumptions. The study identified 98 miR-124 targeted genes that have direct physiological functions, protecting neurons from death.
Researchers at TU Dresden developed DUT-60, a crystalline framework with the highest specific surface area and pore volume among known materials. The highly porous material can store large quantities of gases or filter toxic gases from the air.
The Cluster of Excellence PoL aims to understand the organization of living matter and its mechanisms. The researchers hope to shed light on tissue formation and structure, which will provide solutions to pressing bioengineering and health issues.
The DFG has approved a collaborative Cluster of Excellence ct.qmat at TU Dresden and JMU Würzburg, aiming to establish a globally leading centre for quantum materials research. The cluster will focus on understanding, controlling and applying topological states of quantum matter.
TU Dresden has secured funding for three new Clusters of Excellence, including PoL: Physics of Life, ct.qmat: Complexity and Topology in Quantum Materials, and CeTI: Center for Tactile Internet. This achievement confirms the university's continuous development and commitment to cutting-edge research.
The Centre for Tactile Internet with Human-in-the-Loop research focuses on developing intelligent and adaptive systems for real-time communication. The goal is to create a network that links people, learning from human insights to improve machines.
Researchers developed a novel synthetic antibody that allows for controlled degradation of fluorescent proteins in living cells and tissues, enabling functional analysis. This technology can be used to study essential protein functions in complex vertebrate models.
Magnetic skyrmions can form through different mechanisms in separate phases of the same material, offering new possibilities for stable and compact magnetic storage. The discovery was made possible by collaboration between experimental and theoretical physicists and is published in Nature Physics.
Particle physicists at TU Dresden have observed the scattering of W and Z bosons in two different processes, providing new insights into the weak interaction. This discovery is one of the outstanding results presented at ICHEP2018 and involves a collaboration with research groups from around the world.
TU Dresden has improved significantly, moving up four positions from 10th to 6th in the DFG Funding Atlas, indicating its strong research record. The university has been steadily improving since 1997 and secured €260m in funding between 2014 and 2016.
Mass losses in Antarctic Ice Sheet have increased globally sea levels by 7.6 mm since 1992, with West Antarctica experiencing largest change. The study, published in Nature, combined satellite surveys and gravitational data to produce the most complete picture of ice sheet change.
An interdisciplinary team investigates how individual building blocks arrange into regular patterns during embryonic development or healing processes. Researchers use high-resolution video microscopy and novel biomolecules to test findings on fruit flies and human stem cells.
Ultrastable glass layers significantly increase OLED efficiency and stability by up to 15%. This breakthrough allows for better competition in markets like automotive lighting and head-mounted displays. The research was carried out jointly by Universitat Autònoma de Barcelona and Technische Universität Dresden.
Researchers at TU Dresden have created a novel approach to synthesize nanographenes and graphene nanoribbons using ball mills, eliminating the need for solvents and reducing environmental impact. This breakthrough could pave the way for more efficient and sustainable production of electronic and solar energy materials.
A team of scientists has developed a new analysis scheme to model dynamic cascading failures in power grids, taking into account the specific network dynamics between individual failures. This approach predicts potentially endangered lines and network components, enabling proactive risk assessments and system planning.
Researchers at TU Dresden are developing intelligent material combinations for autarkic fibre composites with integrated actuators and sensors. These materials can react quickly and precisely to environmental changes, making them suitable for applications in mechanical engineering, robotics, architecture, and orthotics.
Researchers, including Prof. Dr. Satyam Suwas and Prof. Dr. Werner Skrotzki, investigate nanoplasticity to balance material strength and ductility. Their collaboration aims to understand fundamental nature of nanocrystalline materials and their applications in various industries.
In two-dimensional crystals, researchers identified the nature of interlayer excitons, which consist of positive and negative charge particles separated by space. This discovery enables stronger binding and potentially leads to highly efficient solar cells.
Physicists from TU Dresden and JMU developed a novel approach to measure optical near-fields with significantly less effort. By using biomolecules as a transport system, they can slide extremely small optical nano-probes over a surface, circumventing the diffraction limit.
A study published in Nature Communications found that tree diversity and neighbourhood interactions significantly impact forest productivity, promoting more wood production and reducing soil erosion. By planting multiple native tree species at small spatial scales, afforestation programs can benefit from biodiversity conservation.
Researchers from CFAED at TU Dresden have made a significant discovery in organic semiconductors by uncovering doping. The team simulated and experimentally verified the doping properties of prototypic materials C60 and ZnPc using density of states and Fermi level position analysis.
Scientists discover that training precursor cells in the bone marrow with beta-glucan leads to a sustained positive response of the hematopoietic system. This effect could help accelerate the formation of new white blood cells, which are vital during chemotherapy.
The German Research Foundation will fund TRR 83 for a further four years to study biological membranes and their functions. Biological membranes with proteins and lipids mediate various functions, from barriers to signal transduction platforms.
Researchers have developed a molecular sensor that can detect and eliminate cells with mutated TP53 genes, which are responsible for 50% of all human tumors. The sensor initiates cell death if the gene is non-functional, preventing tumor formation at an early stage.
Researchers have developed a novel in vitro platform to analyze zebrafish oligodendrocyte progenitor cells, which could lead to improved spinal cord repair in humans. The system allows for efficient and controlled analysis of these cells, enabling the study of their differentiation into mature oligodendrocytes.
Researchers developed a method to trace the history of beta-cells in zebrafish, revealing dynamic sub-populations with different developmental histories. These findings have implications for understanding diabetes progression and developing effective strategies for beta-cell regeneration and protection.
The Technische Universität Dresden has been granted funding for 18 proposed tenure track chairs as part of the Federal and State government programme. This funding approval enables the university to offer career paths that are easier to plan, attracting top talent and retaining them early on.
Researchers at TU Dresden and HTW Dresden found that cancer cells' adaptability affects tumour spread in complex environments, while simplicity worsens spreading. A theoretical approach to suppressing cancer cell plasticity has been proposed for further research.
Researchers from TU Dresden and CiQUS successfully synthesized decacene, the longest acene molecule ever produced. The breakthrough achievement demonstrates the power of collaboration between synthetic chemists and surface scientists to overcome long-standing chemical challenges.
Ticks use specialized pads on their feet to adhere to surfaces, allowing them to walk and search for prey on humans and animals. Their attachment mechanism is reversible and can be folded and unfolded like an accordion.
Professor Michael Sieweke has been awarded the Humboldt Professorship at TU Dresden, a prestigious grant worth up to €5 million. He will focus on mechanisms of blood formation and tissue regeneration, with potential applications in cellular therapy and immune system recovery.
TU Dresden will establish two new Collaborative Research Centres (CRCs) and continue a third CRC, receiving significant funding from the German Research Foundation (DFG). The new CRCs focus on interdisciplinary research topics such as vituperations and insults, and the adrenal's role in stress and disease.
Researchers at Technische Universität Dresden have developed a new, low-cost electrocatalyst for producing molecular hydrogen. The MoNi4/MoO2@Ni catalyst exhibits high HER activity comparable to platinum and presents state-of-the-art HER activity amongst all reported Pt-free electrocatalysts.