Scientists from ISTA create thermoelectric coolers with improved performance and reduced waste by 3D printing materials, offering potential for medical applications and energy harvesting. The innovative method reduces production costs and enhances material properties.
Physicists from ISTA reveal that the contact history of materials determines how they exchange charge, explaining the unpredictability of contact electrification. By analyzing identical materials, they discovered a triboelectric series and found that repeated contact allows samples to evolve and order correctly.
Researchers developed a method to 'translate' optical signals to and from qubits, reducing cryogenic hardware needed. This breakthrough enables scalable quantum computers with increased qubit numbers, laying the foundation for room-temperature networks.
Researchers at ISTA identify a brain region in mice that predicts and minimizes visual distortion during movement, allowing for sharper mental images. The 'ventral lateral geniculate nucleus' (vLGN) integrates motor and sensory signals to compute a comprehensive corrective signal, enabling more efficient visual processing.
Scientists studied painted lady butterflies' migration patterns and found that environmental conditions shape their travel behavior, with some crossing the Sahara Desert. Contrary to previous belief, genetic analysis revealed no difference in DNA sequences between short- and long-trip butterflies.
A team of researchers has developed a theoretical model forecasting the ideal body plan of a fruit fly's early embryo, indicating that evolution might have had many optimal options. The study suggests that optimization is a key driving force in nature, with biological systems often having multiple optimal solutions for the same problem.
A 40-year study reveals increasingly common and devastating megadroughts worldwide, with significant impacts on ecosystems and agriculture. The research used global meteorological data to track changes in drought patterns and their effects on vegetation, providing insights into the paradoxical responses of different forest types.
Researchers uncover human hippocampal CA3 region's unique neural connectivity and synaptic properties. The team found that the human CA3 network codes information efficiently to maximize associations and memory storage, with sparser connections and more reliable synapses compared to mouse models.
Researchers at ISTA discovered novel network structures that boost cooperation throughout a system. These structures have the potential to be applied in biology, particularly in bioreactors, to speed up evolution and cultivate microorganisms. The findings could also improve cooperation in computer science-based systems.
Researchers at ISTA used miniature 2D organs and rubbery silicone molds to study morphogen signaling dynamics during spinal cord development. The study found that BMP morphogen signaling gradients emerge quickly, then fade away, only to reappear again, shedding light on the complex process of tissue development.
Researchers at ISTA and Columbia University developed a technique using adeno-associated viruses (AAVs) to track a frog's nervous system throughout its metamorphosis, shedding light on the neural circuit and behavior changes during this transition. The breakthrough can help usher amphibian neurobiology into a new era.
Researchers studied mossy fiber synapses in the hippocampus, a crucial region for memory formation and spatial navigation. They discovered that specific proteins play key roles in encoding and processing distinguishing features to trigger memory retrieval.
Researchers develop novel mathematical formalization, the quantitative omnigenic model (QOM), to understand how mutations affect diseases. The QOM combines state-of-the-art genome analysis with biological insights to explain polygenic diseases.
Astronomers have studied the last unexplained historical supernova from 1181 AD, known as SN 1181, in detail. The team discovered a 'zombie star' at its center and dandelion-shaped filaments emanating from it.
In a 30-year experiment, scientists witnessed rapid evolution of marine snails in response to pollution and climate change. The snails' adaptation was driven by genetic diversity and gene flow from neighboring populations, allowing them to rapidly adapt to their new environment.
A team of scientists has created a comprehensive atlas of early mammalian morphogenesis, revealing that individual events such as cell divisions and movements are highly chaotic. However, the embryos as a whole end up looking very similar to one another, with physical laws driving them to form a specific morphology shared among mammals.
Carl-Philipp Heisenberg, a developmental biologist, has received a five-year €1M NOMIS grant to investigate the role of cytokinesis in early embryo development. His research aims to challenge the current understanding and uncover the mechanisms that shape complex life forms.
Researchers at ISTA have decoded the structure of HTLV-1 using Cryo-Electron Tomography, revealing a distinct viral lattice that differs from other retroviruses. This discovery could pave the way for novel treatment approaches to combat HTLV-1 infections, which affect 5-10 million people worldwide.
Researchers have developed big algebras, a new mathematical tool that connects abstract algebra and geometry, enabling unprecedented insights into symmetry groups. This breakthrough has the potential to strengthen the connection between quantum physics and number theory.
ISTA's Lisa Bugnet, Alicia Michael, and Marco Mondelli have been awarded ERC Starting Grants to develop new methods for extracting information from data, studying gene regulation, and understanding time-keeping in cells. Their projects aim to simplify data analysis, accelerate personalized medicine, and uncover the secrets of biologica...
Researchers at ISTA discovered that misaligned protein filaments 'die' and re-assemble to form a well-aligned ring structure essential for bacterial cell division. This mechanism could lead to the development of synthetic self-healing materials.
A new approach by researchers at ISTA reveals how cells navigate through complex environments and interact with each other. The study uses computer simulations to visualize different scenarios, showing that cells move in trains like an all-wheel drive system, while clusters are slower due to collisions.
Researchers introduce a new mathematical framework that analyzes self-organization in embryonic development. The framework, which uses information theory, predicts optimal parameters for the process and provides insight into how cells interact with each other. This discovery has implications for understanding complex biological processes.
A recent study by Martin Hetzer and colleagues shows that RNA molecules, crucial for cellular function, remain stable for two years in nerve cells of mice. These long-lived RNAs play a significant role in maintaining cellular longevity and protecting the genome.
Astronomers discover tiny, red versions of massive black holes that could change our understanding of their origins. The 'baby quasars' are small-scale black holes with masses between ten and a hundred million solar masses, observed using the James Webb Space Telescope.
Scientists develop a new mathematical principle to understand cooperation among individuals with different characteristics. Their model suggests that a more equal distribution of resources is necessary for diversities to sustain cooperation, but not for maximum general welfare.
A new study using a high-resolution global climate model found that cloud clustering causes more extreme rain in the tropics, leading to increased severity of precipitation events. The researchers also discovered that more extreme rain occurs at the cost of expansion of dry areas, further shifting towards extreme weather patterns.
Researchers at ISTA developed a novel 'Flash and Freeze-fracture' technique to analyze brain region communication. The method reveals that neurons in the medial habenula exhibit unusual behavior, contradicting general understanding, and provides insights into protein localization and synapse strengthening.
Researchers at ISTA have discovered the composition of poxviral cores, a key factor in their infectivity. The study's findings could lead to the development of new therapeutics targeting the viral core.
Researchers at ISTA investigated the crucial set of synapses between neurons within the cerebellum, uncovering details of their function and development. The study used advanced techniques to look at the inhibitory synapses in great detail, revealing how they delicately influence the cell's signal output.
Researchers analyze fertilized ascidian oocytes to understand the mechanism driving cytoplasmic reorganization and cell shape changes. Friction forces between cellular components, such as actomyosin cortex and myoplasm, are found to be pivotal in determining organismal shape.
Researchers discovered 50 genetic changes underlying the switch from egg-laying to live-bearing in marine snails, which evolved within the past 100,000 years. The findings provide insights into the evolutionary process and potential benefits of live-bearing, including increased reproductive success in new habitats.
Researchers have uncovered a population of 25 intermediate-mass helium stars that bridge the gap in knowledge about hydrogen-poor supernovae. These stars were found using UV photometry and optical spectroscopy, with strong spectral signatures of ionized helium confirming their composition.
Researchers have mapped the lineage of neural stem cells in the superior colliculus, revealing an exceptional capacity to generate different types of neurons. The study also found that neural stem cells retain their ability to produce any type of neuron until the end of development.
Researchers discovered that rising temperatures trigger katabatic winds in Himalayan glaciers, cooling the air and preserving surrounding ecosystems. The team used climate models to demonstrate this phenomenon across the Himalayan range, suggesting that some glaciers may have a chance to 'save' themselves by reacting to global warming.
Researchers from Austria and France join forces to unravel the secrets of gene regulation during mammalian development using stem cell-derived 3D culture models. The project aims to understand how key molecular events influence gene transcription and regulation over hours and days.
Researchers found a 27% decrease in mean friction and a 9% reduction in energy demand through pulsating pumping similar to the human heart. This approach could lead to less costly modifications than pipe wall changes or actuators, benefiting industrial applications.
Researchers at ISTA discovered that immune cells actively shape their environment by consuming chemokine signals, allowing them to generate their own guidance cues. This dynamic regulation enables collective migration of immune cells and has significant implications for enhancing immune response coordination.
Researchers at ISTA use swimming bacteria to assemble materials, introducing a novel strategy for fabricating soft materials. The study demonstrates the potential sustainability benefits of harnessing energy from bacteria in material production.
A new game theory model developed at ISTA finds that both information and ignorance can lead to cooperative outcomes in changing environments. The model, based on stochastic games and algebra, quantifies the benefits of ignorance in around 80-90% cases, highlighting counter-intuitive instances where it is optimal for cooperation.
Researchers from ISTA and NUS developed a new theoretical model to understand long-range cell-cell communication. The model reveals the interplay between mechanical forces and biochemical signals in cells, shedding light on complex biological phenomena. It has potential applications in wound healing and understanding tissue behavior.
Scientists have developed a new technology called LIONESS, which allows for comprehensive and spatially resolved reconstruction of living brain tissue. This breakthrough enables observation and measurement of dynamic cellular biology in real-time.
Researchers track the movement of two specific gene elements on a chromosome, finding that they exhibit fast motion and dense packing. This study provides insights into how gene activity is controlled in 3D space, challenging previous assumptions about long-distance communication.
Researchers discovered that ants preferentially groom the individuals carrying the highest amount of fungal spores, which are the greatest disease risk. This unique combination of simple rules leads to highly efficient colony-level disease control and 'social immunity' in ant colonies.
Entangling low-energy microwave with high-energy optical photons is a crucial step to overcome challenges in scaling up existing quantum hardware. The achievement has implications for realizing interconnects to other quantum computing platforms and novel quantum-enhanced remote sensing applications.
Researchers found that a group of amino acids influence brain development, leading to severe effects after birth if nerve cells are starved. The study showed that mice with low levels of essential amino acids developed microcephaly and exhibited long-term behavioral abnormalities similar to those in autism spectrum disorders.
A study by Sylvia Cremer and her team reveals that pathogens reduce their chemical detection signals in response to ant's social care intervention. This adaptation allows the fungi to counteract spore removal and escape the ant's immune system, demonstrating the impact of collective hygiene measures on pathogens.
Researchers successfully developed artificial replicas of GPCRs, allowing for controlled activation and replication of original functionality. The method enables precise modulation of immune cells' responses, holding promise for treating diseases targeted by GPCRs.
Scientists uncovered a biophysical mechanism steering stem cells in the intestine, shedding light on their behavior and renewal process. The findings suggest that location plays a crucial role in determining which cells act as stem cells, with more frequent movements in the small intestine leading to increased stem cell activity.
Researchers discovered that immune cells can enter tissues by exploiting the division of surrounding cells, which creates a gap for them to pass through. This process is crucial for the immune system's rescue service, and understanding it could lead to new strategies for cancer research and autoimmune diseases.