Scientific Computing | Scientific Computing World
Simon Andrews highlights the shift from traditional biology to computational biology, highlighting the increased complexity of data due to high-throughput imaging and single-cell analysis. Powering the future of HPC with Arm-based technology. Professor Simon McIntosh-Smith discusses Arm’s growing role in HPC and the development of Arm-based ...
Unlocking the future: Breakthroughs in scientific computing
AI, with its ability to process and learn from vast amounts of data, is already revolutionising scientific computing. In life sciences, AI is being used to accelerate drug discovery, model protein folding, and personalised medicine. With this special series of year-round interviews and events, we delve into the latest breakthroughs in these ...
Breakthroughs | Scientific Computing World
The power of scientific computing is changing our world. Breakthroughs is a unique collection of interviews with the thought leaders spearheading that innovation across five distinct areas. These inspiring stories – and the case studies they reveal – will help translate technical benefits into tangible results for engineers, scientists and ...
The future of computational science | Scientific Computing World
The future of computational science. Computational science has progressed steadily over the past decade. Improvements in computing performance allow us to model much more complex chemical, biological, and materials systems, and to understand increasingly large quantities of data. But these advances require finesse, as well as power.
About Us | Scientific Computing World
About Us. Scientific Computing World is the only global publication dedicated to the computing and information technology needs of scientists and engineers. The title serves the engineering, science, and technology computing sectors, with a particular focus on three key areas: Informatics; High-Performance Computing; and Simulation software.
Realising the potential of AI and HPC - Scientific Computing
The convergence of artificial intelligence (AI) and high-performance computing (HPC) promises to transform the scientific computing landscape, with its potential to enable research groups to tackle challenges that would otherwise have been beyond their capabilities. Over the past decade, we have begun to see AI penetrate nearly all industries ...
Can photonics deliver the next breakthrough in research computing?
GF Fotonix is Global Foundries’ next-generation, monolithic platform, which is the first in the industry to combine its 300mm photonics features and 300GHz-class RF-CMOS on a silicon wafer. The process has been designed to deliver performance at scale and will be used to develop photonic compute and sensing applications.
Quantum Computing: Accelerating the Path to a Sustainable ...
In conclusion, the path to a sustainable supercomputing future lies in leveraging the strengths of both classical and quantum computers. Quantum computers, with their low energy consumption and exponential computational growth, offer a promising solution to the energy challenges faced by the supercomputing sector.
Cloud computing | Scientific Computing World
New technologies. Integration and support service launched to help organisations adopy cloud supercomputing. Virtuozzo selected to develop scientific research platform. Verne Global announces key additions to support sustainable data centre services.
An AI revolution | Scientific Computing World
An AI revolution. The confluence of data, compute power and advances in the design of algorithms for AI (artificial intelligence) and ML (machine learning) are driving new approaches in the laboratory. This gives scientists access to additional tools that can open new avenues for research or accelerate existing workflows.