Conferences  >  Informatics  >  Computing Hardware

Schloss Dagstuhl – Leibniz-Zentrum für Informatik GmbH

The seminar will seek to foster deep, interdisciplinary collaboration to co-design better integration of custom hardware while establishing appropriate security controls across all levels of the stack. Through invited talks, breakout sessions, and focused discussions, participants will work toward identifying key properties for trustworthy silicon architectures, culminating in guidelines and open research questions that can inspire both academic research and industry practices.

Information Security and Information Privacy,    Software Engineering

IEEE

The International Solid-State Circuits Conference is the foremost global forum for presentation of advances in solid-state circuits and systems-on-a-chip. The Conference offers a unique opportunity for engineers working at the cutting edge of IC design and application to maintain technical currency, and to network with leading experts

Wilhelm and Else Heraeus-Foundation

Physics-based computing explores alternatives to traditional transistor-based electronics, leveraging nonlinear phenomena in various physical domains to solve real-world problems. This approach extends the concept of analog computing, offering potential for sustainable, energy-efficient solutions in information and communication technologies. The demand for machine learning has surged, driven by advancements like ChatGPT, but the energy cost of digital, transistor-based computing remains high, particularly in large-scale data centers. In contrast, physics-based computing, such as physical reservoir computing, harnesses nonlinear dynamics in systems like magnetic skyrmions, photons, and spin waves to enable more efficient data classification, pattern recognition, and time series predictions. By operating in the nonlinear regime, these physical systems convert input signals into measurable outputs, offering a promising route to edge computing applications in fields like medical diagnostics, autonomous mobility, and smart energy grids. The strength of physical computing lies in its ability to process complex data with minimal energy consumption, without relying on traditional deep learning algorithms. Magnonics, spintronics, and photonics are key fields in this emerging area, offering systems that can serve as powerful, interconnected computational reservoirs. Spintronics, harnessing the electrons’ spin, enables the design of energy-efficient neural networks, while magnonics and photonics provide high-frequency platforms for wave-based computing. The integration of these fields, alongside other platforms such as superconductors, presents new opportunities for developing complex, scalable computing systems that can meet the growing demands of machine learning while advancing sustainable technologies.

Quantum Mechanics and Quantum Technology,    Quantum Information Theory and Quantum Computing

NTNU – Norwegian University of Science and Technology - Center for Quantum Spintronics (QuSpin)

QuSpin´s objective is to develop the basic science that uses quantum entities such as the electron spin as information carriers in radically different ways. We aim at groundbreaking basic research that is crucial to the development of fast, high-capacity, material systems and tools for smaller and more power-efficient electronic devices.

Quantum Mechanics and Quantum Technology,    Electronic Engineering

Optica

The Optica Quantum 2.0 Conference and Exhibition brings together the global community driving the next era of quantum technology. Quantum 2.0 harnesses superposition and entanglement in large-scale systems—such as quantum computers, networks and sensors—that move beyond the single-system capabilities of Quantum 1.0. The program spans quantum computing, communications, devices, sensing, and metrology, alongside discussions of the ecosystem, commercialization and societal impact. Attendees will explore cutting-edge research, emerging applications and the opportunities shaping a quantum-enabled future.

Quantum Mechanics and Quantum Technology,    Electronic Engineering

Low-Cost 3D (LC3D) is a series of international ISPRS workshops on low-cost three-dimensional sensor systems and tools, ranging from low-cost acquisition devices like handheld scanning systems over inexpensive photogrammetric algorithms to processing software and applications.

Sensors, Algorithms, Applications

Metrology and Instrumentation,    Optics and Lasers

NTNU – Norwegian University of Science and Technology - Center for Quantum Spintronics (QuSpin)

QuSpin´s objective is to develop the basic science that uses quantum entities such as the electron spin as information carriers in radically different ways. We aim at groundbreaking basic research that is crucial to the development of fast, high-capacity, material systems and tools for smaller and more power-efficient electronic devices.

Quantum Mechanics and Quantum Technology,    Electronic Engineering