Stop guessing how to blow up rocks efficiently — there's a SaaS for that now
BlastholeOps ingests drill core assay data, geological model exports, and explosives inventory feeds to generate optimized blast pattern designs that minimize overbreak, maximize ore yield, and keep the magazine accountant from having an aneurysm. It tracks detonator allocation, burden and spacing calculations, and post-blast fragmentation analysis all in one place so your shot firer isn't doing this on graph paper anymore. Mining engineers genuinely tear up the first time they see the fragmentation histogram.
- Automated blast pattern generation from raw assay imports with full burden/spacing optimization
- Fragmentation prediction engine trained on over 340,000 historical blast events across 19 ore body classifications
- Live explosives inventory sync via BlastTrac API and Dyno Nobel Connect webhook feed
- Post-blast fragmentation histogram analysis with P80 reporting built in. No spreadsheet required.
- Detonator allocation tracking with timing sequence visualization across multi-row patterns
Vulcan GeologicSuite, Leapfrog Geo, BlastTrac, Dyno Nobel Connect, MineStar Health, OreVault, Maptek Eureka, JKSimBlast, ShotPlanner Pro, RHINO Geomechanics, Trimble Stratus, AssayBase Cloud
BlastholeOps runs as a set of independently deployable microservices behind a single API gateway, with each domain — pattern design, inventory, fragmentation analysis — owning its own data and deployment lifecycle. Blast event records and transactional inventory state are persisted in MongoDB, which handles the write volumes from continuous drill feed ingestion without breaking a sweat. The fragmentation analysis pipeline caches pre-computed P80 results and histogram bins in Redis for long-term retrieval so dashboards stay fast regardless of dataset age. The frontend is a single-page React app that talks exclusively to the public API, which means the whole thing is auditable end to end.
🟢 Production. Actively maintained.
Proprietary. All rights reserved.