Compress
High-density lossless compression for highly structured scientific datasets.
ZCaps for genomics
Lossless. Selectively accessible.
Measured on an 11.23 GiB VCF chr21 dataset using ZCaps Level 12. Original data reconstructed exactly.
Historical genomics campaign · results specific to the tested dataset, build and hardware.
99.26%REDUCTION
134.6× compression ratio
High-density lossless compression for highly structured scientific datasets.
Retrieve targeted byte ranges by decoding only the relevant compressed chunks.
Independent chunks and files can be processed concurrently across server resources.
ZCaps addresses bytes and ranges. Chromosome or genomic-coordinate lookup requires an integration layer that maps those coordinates to byte ranges.
01 / Separate genomics benchmark campaign
Selected ZCaps results from the historical genomics campaign. These measurements use a different system and build from the current ZMDC benchmark.
1000 Genomes phase 3
99.26% reduction
134.6× compression ratio · Level 12
Targeted 4 MiB extraction: 0.16–0.17 s
Gene annotation
98.63% reduction
73.07× compression ratio · Level 12
Sequence alignment
87.37% reduction
7.92× compression ratio · Level 12
Sequencing reads
77.68% reduction
4.48× compression ratio · Level 12
Functional annotation
94.63% reduction
18.63× compression ratio · Level 12
0.11–0.75 smeasured targeted extraction envelope
30 formats · 3 compression levels · 90 compression runs · 270 targeted 4 MiB extraction runs · datasets up to 98.90 GiB.
SHA-256 validation of extracted ranges.
Intel Core i9-13980HX
16 GiB RAM · NVMe SSD
Windows 11
Historical genomics campaign. Separate from the current ZMDC benchmark. Results are specific to the tested data, build and hardware.
Explore ZCaps technical evidence02 / Scientific data compression
Less data to store. The original data preserved. Selected Level 12 results from the historical genomics campaign.
| Dataset | Reduction | Ratio |
|---|---|---|
| VCF chr21 | 99.26% | 134.6× |
| GTF | 98.63% | 73.07× |
| Human FASTA | 97.28% | 36.78× |
| Human GFF3 | 97.23% | 36.08× |
| dbSNP JSON | 97.00% | 33.31× |
| OrthoXML | 96.56% | 29.06× |
| GOA GPA | 95.03% | 20.14× |
| GOA GAF | 94.63% | 18.63× |
| SAM | 87.37% | 7.92× |
| FASTQ | 77.68% | 4.48× |
Reduction = (1 − 1 / compression ratio) × 100, rounded to two decimals. Results compare ZCaps across datasets, not against competing compressors.
03 / Selective access at scale
Observed targeted extraction remained sub-second across the tested size range.
Target the region. Decode the required chunks. Keep the rest compressed.
0.11–0.75 sObserved campaign envelope · targeted 4 MiB extraction
File sizes shown are documented examples. The extraction envelope describes the campaign, not individual latency values for each file or a universal latency guarantee.
04 / Bioinformatics infrastructure
Retain byte-exact scientific records with lossless bioinformatics compression and selective retrieval.
Explore VCF compression for large variant collections while retaining targeted byte-range access.
Integrate FASTQ compression and SAM compression into workflows for reads and alignments.
Reduce repository storage while preserving original files for reproducible research.
Compress GTF, GFF3 and functional annotation records using a data-adaptive engine.
Keep compression and genomic random access inside infrastructure controlled by your organization.
Use scientific data compression across large collections, processing independent files concurrently.
Discuss your workload