High-Performance Computing
for Genomic Research
for Genomic Research
A leading academic research team studying hair phenotype genetics across populations faced computational bottlenecks in analysing massive genomic datasets. They needed to generate millions of simulated genotypes while ensuring statistical accuracy and creating compelling visualisations for publication.
Scale R code for high-throughput cluster computing
Generate millions of accurate simulated genotypes
Optimise computational efficiency
Create publication-quality visualisations
Enable cross-population genetic analysis
1. Data Architecture Analysis
Assessed existing computational workflows
Identified performance bottlenecks
Mapped data dependencies
Designed scalable architecture
2. Technical Implementation
Optimised R codebase for parallel processing
Implemented cluster computing integration
Built automated QC protocols
Developed visualisation pipeline
3. Solution Delivery
High-performance computing framework
Automated genotype simulation system
Interactive visualisation toolkit
Documentation and knowledge transfer
Indefinite running to rapid processing speed exploiting available cluster power
Millions of genotypes simulated within hours
Statistical accuracy reviewed and confirmed
Full transparency of methods and open source code
Enhanced research capabilities
Publication-ready visualisations
Scalable framework for future studies
Improved cross-population analysis
"UMBIZO's optimisation solutions transformed our computational capabilities, enabling analyses that were previously impossible. The Umbizo team is very professional, great communicators, and adhered to our timeline. Their expertise in both bioinformatics and data visualisation significantly enhanced our research impact. I look forward to having the opportunity to work together again!"
Dr. Tina Lasisi, Principal Investigator
Initial Assessment: 1 week
Implementation: 2 weeks
Optimisation: 1 month
Ongoing support and development
Expanding the framework to support additional genetic traits and developing new visualisation techniques for complex genomic interactions. Continued support with future research.