High‑Performance Computing
HPC
Unlock the power of parallel computing for your most demanding workloads.
Our HPC Services
Distributed HPC
It is through data that ground‑breaking scientific discoveries are made, game‑changing innovations are fuelled, and quality of life is improved for billions of people around the globe. HPC is the foundation for scientific, industrial, and societal advancements.
As technologies like IoT, AI, and 3‑D imaging evolve, data volumes grow exponentially. From streaming live events and tracking storms to testing new products and analyzing stock trends, organizations need lightning‑fast, highly reliable infrastructure to process and analyze data in real time.
Use Cases
- Climate modeling and weather forecasting
- Computational fluid dynamics simulations
- Molecular dynamics simulations
- Protein folding and drug discovery
- Financial modeling and risk analysis
- Computational astrophysics and cosmology
- High‑performance web serving and content delivery
- Large‑scale data analysis and machine learning
- Genome sequencing and bioinformatics
- Energy exploration and reservoir modeling
- Autonomous vehicle simulations and testing
- Video transcoding and streaming
- Cryptography and secure communications
HPC on Cloud
High‑Performance Computing (HPC) on the cloud leverages elastic cloud resources to perform large‑scale, compute‑intensive tasks without the need for heavy on‑premise investments. Configure multiple cloud providers, storage, and networking to run HPC workloads efficiently, with built‑in security and resource optimization.
- Scientific simulations
- Financial modeling and risk analysis
- Weather forecasting
- Molecular dynamics simulations
- Machine learning and deep learning
- Image and video processing
- Genome sequencing and analysis
- Finite element analysis
- Computational fluid dynamics
- Oil and gas exploration
Containerization HPC
Containerized HPC uses technologies like Docker and Kubernetes to package applications and dependencies into portable containers. This simplifies deployment across heterogeneous environments, improves resource utilization, and enhances reproducibility while reducing conflicts and downtime.
Use Cases
- High‑throughput data processing
- Computational chemistry
- Bioinformatics
- Deep learning and AI training
- Computer vision
- Computational fluid dynamics
- Finite element analysis
- High‑frequency trading
- Genomic analysis
How we help?
With High‑Performance Computing as a Service (HPCaaS), we help clients design and run tailored HPC environments in a budget‑friendly, scalable way. Our experts work closely with you to choose the right mix of hardware, cloud resources, schedulers, and storage.
HPCaaS delivers high‑level processing capacity through the cloud, enabling organizations to run complex calculations on massive datasets without large up‑front investments. The same workloads that once required dedicated supercomputers can now be executed on agile, cloud‑based platforms.
Our solutions draw their power from parallel, cluster, grid, and distributed computing designs—carefully engineered for performance, resilience, and cost efficiency.
- Parallel Computing: hundreds of processors executing workloads simultaneously for maximum throughput.
- Cluster Computing: tightly‑coupled nodes with shared schedulers, storage, and monitoring for research and enterprise workloads.
- Grid & Distributed Computing: loosely‑coupled systems across locations, stitched together for resilient, scalable power.
Benefits of HPC
HPC helps organizations overcome computational limits of traditional systems, delivering faster insights, lower costs, and improved innovation velocity.
High Performance
Clusters combine high‑speed processors, memory, networking, and file systems to maximize throughput and minimize latency.
Parallel Computing
Run many tasks at once across multiple servers and accelerators, dramatically increasing simulation and analytics efficiency.
Lower Cost
Pay‑as‑you‑go infrastructure and efficient resource utilization reduce capital expenses while keeping performance high.
Reduced Physical Testing
Accurate simulations minimize the need for expensive, time‑consuming real‑world experiments in domains like automotive, aerospace, and healthcare.