Andrea Iannelli's ERC Starting Grant project aims to develop adaptive autonomous systems that learn, adapt, and act in complex environments. The project proposes a new framework combining control theory, optimization, and statistical learning to achieve safe and robust behavior.
Joachim Groß, a process engineer, has received an ERC Advanced Grant to develop an open-source system that combines empirical and physical models for predicting complex chemical processes. The system aims to overcome the limitations of current models and provide a high degree of precision for both science and industry.
Researchers developed tiny ceramic microscrolls that can be unrolled and rolled up in a controlled manner using a magnet, inspired by the rolling motion of butterfly proboscis. The microscrolls have proven to be durable and can lift more than 30 times their own weight.
Researchers created a programmable DNA nanodevice that penetrates lipid membranes using mechanical motion, delivering molecular cargo into synthetic cells. The device enables active control of membrane transport in space and time.
Researchers have discovered a new way to channel light waves using naturally hyperbolic van der Waals material without the need for conventional nanofabricated waveguides. This phenomenon, known as plasmon canalization, can be tuned by adjusting the excitation wavelength.
Researchers at the University of Stuttgart developed an interactively addressable organic metadevice that uses electrically switchable materials to dynamically control light. The platform enables every metasurface pixel to be electronically controlled independently, allowing user commands to be translated into dynamic holographic images.
The University of Stuttgart is ranked first worldwide for its innovative capacity in the Times Higher Education (THE) Sustainability Impact Ratings. The institution has achieved the highest possible score in the Industry, Innovation, and Infrastructure category, reflecting its research and teaching's impact on sustainable development.
Researchers developed an algorithm, RAPID, to re-identify wild animals using their coat patterns. The algorithm achieved high accuracy rates and demonstrated its speed on various datasets, making it a promising module for wildlife monitoring and ecological analyses.
Scientists at the University of Stuttgart have developed a synthetic membrane platform that mimics cellular interactions, allowing for coordinated molecular transport and programmable biochemical reactions. This breakthrough enables the creation of artificial compartments with dynamic regulation of membrane permeability, opening up opp...
A team of researchers successfully enhanced the stability and performance of perovskite solar cells by introducing light-switchable molecules into grain boundaries. The new material design increases operational stability and lifespan while maintaining competitive performance.
The QCyber project aims to develop secure quantum-based methods for communication among multiple users, including diplomatic and financial applications. It will be tested in a real fibre-optic network in Stuttgart with up to six nodes and over distances of up to 20 km.
Researchers at ZAQuant University of Stuttgart have discovered a new magnetic state in 2D chromium iodide, which could enable next-generation data storage. The twist in the material creates skyrmions, nanoscale magnetic structures that are stable information carriers.
A team of researchers has developed a novel single-photon source that combines on-demand operation with record-high photon quality in the telecommunications C-band. This achievement brings deterministic quantum dot sources into the same performance regime as probabilistic SPDC sources, enabling applications such as measurement-based qu...
Rothemund aims to harness phase transitions to improve controllability of soft robots, enabling tasks like grasping and crawling through tight spaces. The project seeks to develop new materials and a model robot arm for three-dimensional motion control.
Scientists at the University of Stuttgart have successfully teleported quantum information between photons from two distant quantum dots, overcoming a crucial technical hurdle. The achievement brings them closer to developing quantum repeaters for the quantum internet.
Researchers have developed a new system that combines laser amplification and bandwidth, achieving 80% efficiency in a compact and versatile design. The system uses a multipass procedure to synchronize pulses and generate pulses shorter than 50 femtoseconds.
Researchers aim to create a thin, endoscopic 3D printer that can be inserted into the body to print tissue where it will later perform its function. The new technology has the potential to revolutionize regenerative medicine by allowing for direct printing of biological tissue inside the human body.
Researchers aim to bring perovskite solar cells to market maturity by improving long-term stability and scalability. Nanostructured materials hold the key to enhancing photovoltaic performance and reducing energy losses.
Aniket Pal's team creates viscoelastic polymers for soft robotics, which exhibit both elastic and viscous properties. These materials can be used to make soft robots more functional and intelligent.
Researchers at the University of Stuttgart have developed a new method to detect tiny nanoplastic particles using an optical sieve, which is less expensive and faster than traditional methods. The test strip can be used to analyze environmental samples, blood or tissue for nanoplastic particles.
Mönch's research focuses on developing partial power processing converters to minimize losses in energy conversion, with potential applications in electromobility and innovative heat pumps. He aims to explore the limits of complete losslessness and develop efficient technologies for capacitive loads.
Scientists develop a new approach to construct moiré superlattices using DNA nanotechnology, enabling precise control over twist angles and lattice symmetries. The resulting structures have potential applications in nanophotonics, spintronics, and materials science.
Frei Otto's ideas revolutionized architecture with his focus on lightweight, interdisciplinary, and responsible design. His work continues to inspire research in sustainable building methods, and his legacy shapes the University of Stuttgart's strategic profile area for Architecture and Adaptive Buildings.
The Stuttgart Cluster of Excellence IntCDC will continue to develop innovative construction methods that reduce resource consumption and CO2 emissions through computational design and engineering methods. The cluster aims to evolve its Co-Design approach into a Co-Agency approach, focusing on bio-based building materials, AI technologi...
The team demonstrated the existence of skyrmion bags of light on a metal layer, which exhibit extraordinary properties. By varying the degree to which the light fields were twisted relative to one another, researchers can manipulate light fields in a targeted manner.
Researchers are building a quantum computer that can connect to other quantum computers via a network for secure information transfer. The team will use atoms as qubits in an experiment involving optical tweezers and highly efficient detectors.
Researchers developed an energy-autonomous facade system that adapts to weather using bioinspired design and additive manufacturing. The 'Solar Gate' system harnesses hygromorphism, a property of cellulose, to open and close autonomously without electrical energy.
Scientists at the University of Stuttgart have developed a new tool for synthetic biology using DNA nanorobots that can alter artificial cells. These nanorobots enable the formation of transport channels in synthetic cell membranes, allowing large molecules to pass through and facilitating the transportation of therapeutic proteins.
Recent studies suggest more direct political participation can revitalize democracy, provided innovative participatory formats are linked to representative institutions. Citizens' councils with random selection could work surprisingly well, achieving consensus on contentious issues.
The new RTG EpiSignal focuses on the interaction between chromatin modifications and cell signaling networks in regulating cellular processes. The researchers aim to uncover molecular mechanisms that determine their interplay, shedding light on fundamental mechanisms underlying cellular decision-making.
The Karlsruhe Institute of Technology is joining the Quantum Science and Technology Centre (IQST) to strengthen research in quantum science and technology in Baden-Württemberg. The centre focuses on innovative applications of quantum science, including sensor technology and secure communication channels.
The University of Stuttgart excels in interdisciplinary collaboration with strong research focus across three key parameters: input, process, and output. Prof Manfred Bischoff praises the university's efforts, highlighting the importance of joint problem-solving for tackling complex challenges.
The University of Stuttgart's UniversalTimberSlab project has developed a resource-saving building system for wood floor slabs with full design freedom. The ArchiBioFoam joint project aims to reduce CO2 emissions by replacing concrete, steel, and glass with sustainable biofoams.
Researchers at the University of Stuttgart have developed a breakthrough in quantum microscopy that allows them to observe the collective motion of electrons in materials. By studying the effect of impurities on these movements, they hope to develop materials with desired properties and create ultra-fast switching materials.
Researchers have demonstrated a way to perform Bell-state measurements with an efficiency exceeding the commonly assumed upper theoretical limit. This breakthrough opens up new perspectives for photonic quantum technologies and could lead to more efficient quantum computing, communication, and sensor devices.
Adding up to 20% soft rubber spheres improves packings' effective stiffness, while exceeding 30% reduces it. This behavior is explained by the length of force chains and coordination numbers of glass particles.
The EnzymeML format provides a standardized way to record enzymatic experiment results, including conditions, data, kinetic models, and parameters. This enables seamless communication between experimental platforms and promotes reproducibility and trust in scientific results.
A long-term study on plastic degradation in oceans reveals significant differences between beach and shipwreck samples. Researchers found that beach-dried plastic pellets had undergone extensive degradation, while those trapped in the wreck showed minimal signs of aging.
Researchers detect a unique binding mechanism between a small ion and a gigantic Rydberg atom, defying classical expectations of particle size. The molecular bond forms when the charged ion deforms the large Rydberg atom, allowing it to form an unusual molecule.
A team of researchers from the University of Stuttgart successfully integrated color centers into nanophotonic silicon carbide structures, paving the way for more efficient quantum computers. The approach enables the robust spin-optical properties of the color centers to be maintained after integration.
Physicists at the University of Stuttgart have developed a novel computer simulation strategy using a virtual fluid that allows for the calculation of electrostatic interactions within any material. This approach enables the study of wetting transitions and phase transitions of ionic liquids at metal surfaces, shedding light on unusual...
Researchers at the University of Stuttgart have successfully identified promising quantum bits in two-dimensional materials. The discovery enables robust generation, reading out, and control of quantum bits, paving the way for a new boost in quantum technologies.
Researchers used broadband electron spin resonance spectroscopy to study the properties of spins in a triangular lattice compound. They found that magnetic moments do not arrange themselves in an up-down pattern, contradicting the existence of quantum spin liquids.
Scientists have successfully demonstrated a quantum computer demonstrator using Rydberg atoms, which can perform computing operations with high precision and scalability. The research uses sophisticated laser systems to control and entangle qubits, paving the way for the development of a functional quantum computer.