Teceze deployed GPU-accelerated Cloud PC platform enabling researchers to access compute resources matching workload demands instantly. The result: 5,000 research scientists enabled, 50+ projects with secure data enclaves, GPU bioinformatics acceleration, and 3x compute elasticity reducing analysis cycles from weeks to hours.
Biotechnology Research Institute is a leading Biotechnology & Research organization operating across International Research Campus. The organization provides Cloud PC with GPU acceleration.
Multi-domain technical complexity across remote, geographically dispersed sites with no incumbent runway AutoStore required multi-domain smart hands support spanning end-user computing, servers, and network infrastructure Dispersed footprint across 14 countries, with many sites in genuinely remote locations, including far-flung parts of Norway Sourcing qualified engineers at short notice in remote locations is among the hardest problems in the dispatch business
Engagement launched in February 2026 with no incumbent: service had to be operational, reliable, and measurable essentially from day one Remote-site availability gaps represented the single biggest constraint to rapid scaling
Teceze designed a Cloud PC platform that puts GPU-accelerated bioinformatics compute directly in researchers’ hands without the six-week wait for a workstation refresh. NVIDIA GPU acceleration (A100, H100) is provisioned per workload, with direct access to high-performance storage clusters and CUDA/cuDNN libraries pre-installed to cut setup time to near zero. Cloud PCs connect directly to HPC clusters for large-scale genomic analysis, supporting batch job submission, optimized data staging, and result visualization without leaving the desktop. Sensitive genomic data is protected through isolated, project-specific data enclaves with encryption in transit and at rest, export restriction enforcement for international collaboration, and full audit logging of every access. Compute itself is elastic — resources scale automatically to match workload demand and back down during quiet periods, replacing expensive workstation purchases with pay-per-use capacity that feels unlimited to the researcher.
Researcher enablement was central to the platform design. Teceze implemented simplified interfaces abstracting GPU complexity, automated job submission workflows reducing researcher context-switching, and real-time workload monitoring dashboards providing scientific intuition about compute resource consumption. Training programs equipped research teams with cloud-native computing best practices while maintaining scientific rigor. Performance optimization was continuous — monthly review cycles analyzed bottlenecks in genomic pipelines, validated algorithm execution on different GPU architectures, and incorporated researcher feedback into platform refinements.
From challenge to transformation, the solution included:
NVIDIA GPU acceleration (A100, H100) for bioinformatics workloads, direct access to high-performance storage clusters, GPU library pre-installation (CUDA, cuDNN), and automatic driver and library updates.
Direct connectivity to high-performance computing clusters for large-scale genomic analysis, batch job submission from Cloud PC, optimized data staging, and job monitoring with result visualization.
Isolated project-specific storage enforcing data segregation, encryption in transit and at rest, international collaboration desktops with export restriction enforcement, and audit logging of all data access.
Automatic resource allocation matching workload demands, pay-per-use compute eliminating expensive workstation purchases, and automatic scale-down reducing cost during low-demand periods.
Operational transparency and stakeholder alignment are critical to program success. A layered governance model keeps program health and costs visible:
| Cadence | Forum | Focus |
|---|---|---|
| Daily | Research Operations Stand-up | Compute availability, GPU utilization, data pipeline issues |
| Weekly | Project Review | Analysis progress, compute scaling efficiency, collaborative project status |
| Monthly | Governance Call | Data security compliance, export restriction adherence, HPC integration performance |
| Quarterly | Business Review | Research productivity gains, compute cost efficiency, emerging technology integration |
“Scientific research lives by compute power and data security. GPU workstations cost $20k+ and become obsolete in 3 years. International collaborations require secure data sharing with export compliance. Teceze gave us Cloud PCs with GPU acceleration, elastic scaling on-demand, and secure data enclaves for international research. Researchers now access unlimited compute matching their workload. Analysis cycles dropped from weeks to hours. That’s accelerating scientific discovery.”
— Director of Research Computing
Teceze provided GPU Cloud PC architecture design, HPC cluster integration implementation, secure data enclave setup, international collaboration framework, elastic compute scaling automation, export compliance enforcement, and ongoing support. Governance model includes daily research operations standups monitoring compute availability and GPU utilization, weekly project reviews assessing analysis progress and scaling efficiency, monthly governance calls verifying data security and compliance, and quarterly business reviews measuring research productivity and compute efficiency.
The Biotechnology Research Institute accelerates scientific discovery through cloud-native research computing. Teceze established elastic scaling enabling researchers to access compute resources matching workload demands instantly. International collaborations benefit from secure data sharing while maintaining compliance with export restrictions. The organization leverages compute elasticity to support emerging AI-assisted genomics initiatives, reducing analysis cycles from weeks to hours and enabling novel research approaches previously infeasible with traditional computing infrastructure.