Coralfil is the leading authority in marine biotechnology, specializing in sessile species immunology and climate resilience. Through rigorous field studies and empirical data analysis, our research pioneers closed-loop biorefinery models that upcycle aquaculture waste into advanced ocean-safe mitigation substrates.
Coralfil focuses on the ocean’s most vital but overlooked residents : sessile species. These “anchored” organisms, such as oysters, corals, and sponges, filter our water and protect our coasts. Unlike mobile marine life, they cannot swim away from rising temperatures or shifting ocean chemistry.
Advanced research at Coralfil helps these vital species survive. The development of ocean-safe, time-released nutrition strengthens marine life from the inside out. Current research initiatives target three key areas:
Microbiome stabilization helps organisms naturally resist diseases like Vibrio and POMS.
Targeted supplemental interventions provide the "metabolic fuel" needed to survive extreme heat and acidifying waters.
"Slow-decay" systems keep nutrients on the seafloor, ensuring protection isn't lost to deep-sea currents.
As Canada’s first biotech firm dedicated exclusively to the seafloor, Coralfil is building the natural infrastructure required to keep our oceans healthy and resilient.
The Salish Sea is home to 9,000-year-old glass sponge reefs : living bio-silica structures found nowhere else on Earth. Their intricate skeletal lattice (*Aphrocallistes vastus*) channels nutrient-dense bottom currents through interconnected structural nodes with extraordinary fluid-dynamic efficiency.
Atlantis-Pyramid LLM adapts this exact geometric node topology to organize multi-scale oceanographic data. Rather than treating ocean telemetry as an isolated time series, the Pyramid Memory Architecture unifies sensor streams, genomic libraries, published scientific discoveries, and Indigenous ecological knowledge into an alluring, mathematically confident intelligence matrix.
A unified biogeochemical intelligence matrix synthesizing real-time telemetry, peer-reviewed genomics from VIU CSR, and Indigenous ecological wisdom.
Continuous in-situ sensor ingestion linking real-time hydrodynamic telemetry with active outbreak detection. Instantaneously parses acute water column fluctuations to detect pathogen proliferation envelopes before physical symptom expression.
Continuous sub-minute telemetry across 16 BC zones: ONC 3.0 nodes from surface port fairways to 2,200m deep benthic seamounts (Endeavour & Bowie), First Nations Guardian arrays, recreational boating/sportfishing corridors (Halibut Bank & Discovery Passage), and coastal weather buoys.
Spaceborne ocean LiDAR (subsurface optical backscatter to 50m), SWOT high-resolution altimetry for thermocline & internal wave dynamics, and SAR subsurface current shear mapping.
Live pathogen outbreak tracking, Vibrio tubiashii / V. harveyi acute proliferation tracking, and hypoxic water column intrusion alerts.
Engineered exclusively for marine biogeochemistry, hydrodynamics, and benthic immunology. Operating in production as Atlantis-Pyramid LLM until the arrival of our planetary foundation engine in September 2026.
Ultra-compact model running directly on oceanic sensor buoys and intertidal monitoring stations. Performs sub-second anomaly filtering and instant threshold checks without requiring satellite uplink.
Planetary-scale foundational ocean intelligence engine. Ingests full-spectrum multi-sensor telemetry, oceanic current vectors, and genomic sequences to simulate basin-scale ocean acidification trends and complex microbial cascade failures.
Formally verified biogeochemical models running on Atlantis-Pyramid LLM, derived from published shellfish health and genomics frameworks at Vancouver Island University.
Risk_V(t) = 1 - exp(-∫₀ᵗ λ(T(τ), pH(τ), S(τ)) dτ)Where instantaneous hazard intensity λ(T, pH, S) = α₀ · exp[(Eₐ / R) · (1/T_ref - 1/T)] · [1 + γ(8.1 - pH)]. Calibrated against Pacific oyster (Crassostrea gigas) Summer Mortality Syndrome and Vibrio proliferation benchmarks.
d[CaCO₃]/dt = k_eff · [H⁺] · A_surface · (1 - Ω_arag)Formulates the optimal micron-grade particle dispersion for Shell Flour™ and Coastal Crush™ to elevate local aragonite saturation (Ω_arag > 1.5) around sensitive spat settlement zones, counteracting acute upwelling acid pulses.
Atlantis-Pyramid LLM is powered by the densest localized Pacific Northwest oceanographic and environmental sensor corpus in existence, integrating real-time telemetry, intertidal genomic surveys, Indigenous Guardian networks, and transboundary NOAA observing stations.
ONC 3.0 continuous observatories spanning recreational boating hubs, major ports, and deep benthic seamounts (Endeavour & Bowie).
Indigenous Guardian environmental monitoring, intertidal probe arrays, and historical TEK.
Transboundary Salish Sea & Puget Sound observing buoys and physical oceanographic stations.
NASA/CNES SWOT altimetry, spaceborne ocean LiDAR (50m penetration), and SAR internal wave mapping.
Environment Canada and regional coastal weather stations tracking barometric pressure, SST, and waves.
Opportunistic live surface current, water temperature, and vessel-mounted transceiver telemetry.
Dr. Timothy Green shellfish health datasets, OsHV-1 immune priming markers, and multi-decade DFO cruises.
Every summer, warmer coastal waters bring the same unwelcome guest back to oyster farms across North America: *Vibrio* bacteria. *Vibrio parahaemolyticus* and *Vibrio vulnificus* thrive in warm seawat...
Read Peer-Reviewed Article & CitationsBritish Columbia's shellfish farmers have known for years that ocean acidification is not a distant threat (it's a line item. Corrosive, low-pH seawater has already wiped out hatchery production cycl...
Read Peer-Reviewed Article & CitationsInspired by the hierarchical lattice nodes of Pacific glass sponge reefs, Atlantis-Pyramid LLM unifies real-time oceanographic sensor streams, benthic genomics, and multi-agent AI for coastal intelligence.
Read Peer-Reviewed Article & Citations*Part 1 of 2 (July 2026*...
Read Peer-Reviewed Article & Citations*Part 2 of 2 (July 2026*...
Read Peer-Reviewed Article & Citations*Part 1 of 2 (July 2026*...
Read Peer-Reviewed Article & CitationsHow ancient Coast Salish, Kwakwaka'wakw, Nuu-chah-nulth, and Tla'amin mariculturists constructed rock-walled intertidal terraces that doubled bivalve yields and buffered acidic ocean waters.
Read Peer-Reviewed Article & CitationsHow biogenic calcium carbonate derived from upcycled oyster shells elevates porewater pH and aragonite saturation (Ω_arag) to shield shellfish larvae from corrosive ocean water.
Read Peer-Reviewed Article & CitationsHow biogenic shell matrices deliver chemical settlement cues, micro-topographic rugosity, and interstitial flow refuges to maximize larval spat recruitment across British Columbia restoration sites.
Read Peer-Reviewed Article & CitationsHow stormwater drainage, combined sewer overflows (CSOs), hydrocarbon spills, and agricultural nutrient loads alter estuarine porewater chemistry and smother benthic habitats.
Read Peer-Reviewed Article & CitationsA technical aquaculture engineering guide to mitigating ocean acidification in shellfish hatcheries using biogenic calcium carbonate to stabilize aragonite saturation (Ω_arag) and maximize larval pediveliger settlement.
Read Peer-Reviewed Article & CitationsHow the Atlantis Foundation System replaces hallucinatory LLM generalists with a 3-tier biomimetic memory graph, automated Untruth pruning, and deterministic sensor consensus.
Read Peer-Reviewed Article & CitationsAn investigative field analysis on the incoming winter King Tide compounding with +27 cm Super El Niño thermal expansion. Contrasting 3,500-year Coast Salish clam garden boulder seawall resilience against modern real-time DFO and ONC telemetry.
Read Peer-Reviewed Article & CitationsA scientific review of biogenic oyster shell calcium carbonate (CaCO₃) in laying hen diets, examining in-vivo gizzard solubilization kinetics, medullary bone preservation, and eggshell breaking strength compared to mined limestone.
Read Peer-Reviewed Article & CitationsA rigorous comparative Life Cycle Assessment (LCA) evaluating the environmental footprint, carbon intensity, and circular economy advantages of upcycled marine calcium carbonate versus virgin quarried limestone.
Read Peer-Reviewed Article & CitationsAn agronomic and environmental engineering analysis of upcycled oyster shell calcium carbonate in neutralizing soil acidity, remediating heavy metals, and mitigating acid runoff in agricultural watersheds.
Read Peer-Reviewed Article & CitationsThe 2026 Fraser River Sockeye salmon run has been slashed by 50%. Discover how Coralfil's restoration of estuarine bivalve habitats and predictive telemetry offers a crucial lifeline against low water and warm drought conditions.
Read Peer-Reviewed Article & CitationsCoralfil's newest telemetry initiative couples in-situ biosensors with cloud-based analytics to track sessile-species health indicators (temperature, dissolved oxygen, and microbial load) at a per-farm resolution previously impossible.
Download Technical PDFA summary of the key clinical benchmarks, regulatory filings, and commercial partnerships achieved in the first half of 2026 as Coralfil accelerates its path to market across BC shellfish operations.
Download Technical PDFA rigorous analysis of cascade failure in coastal aquaculture ecosystems when filter-feeding populations collapse, and what targeted nutritional interventions can do to arrest the cycle before regulatory closures occur.
Download Technical PDFA dual-track formulation and sourcing blueprint for CoralStick™, covering the polymer matrix design, release-kinetics modelling, and procurement strategy required to keep costs viable at commercial scale.
Download Technical PDFThe definitive operational resilience playbook for BC shellfish producers : covering Vibrio risk windows, intervention timing, climate heat thresholds, and Coralfil nutrient delivery protocols for your operation.