AI-powered wildlife threat detection for communities, municipalities, resorts, and conservation organizations — starting with crocodiles and alligators in Florida's waterways.
A conceptual walkthrough of how CrocAlarm's detection-to-alert workflow is designed to work. This is an illustration of the intended experience — not live footage, and not a real detection event.
This is a conceptual visualization of the intended workflow, built to communicate product direction — not a recording of a real deployment. Overlapping node coverage and confidence levels shown are illustrative targets, not field-validated results.
Not every site needs a network. A single edge-mounted node is designed to cover the water directly in front of a private dock or residential frontage on its own.
Actual coverage geometry depends on final sonar hardware selection and site conditions — illustrative, not a guaranteed range specification.
No real-time detection system exists today. Current responses are static signage, intermittent patrols, and reaction after a sighting — not prevention.
Normally invisible — this is what changes when something is finally watching.
Submerged, camouflaged, or masked by duckweed and algae, a crocodilian can sit meters from a dock, playground, or walking path without a single visual cue — day or night. It's why CrocAlarm is being built sonar-first: detection in the water column itself, independent of surface conditions, lighting, or vegetation cover.
Hundreds of fatal crocodilian attacks are reported globally over time, with true totals likely undercounted due to inconsistent reporting across regions.
Dogs and cats are frequent, quietly under-tracked victims. Florida wildlife agencies formally track human bites — not pet fatalities — so no official count exists at all. Anecdotal and regional reporting suggests the real number is far higher than anything publicly recorded, precisely because there's no requirement to report a pet lost to an alligator the way there is for a human attack. For many families, a pet is the first and most personal loss.
Crocodilians preying on cattle, sheep, and other livestock create substantial economic damage in rural and agricultural areas with limited monitoring infrastructure.
HOAs, municipalities, resorts, and theme parks face increasing legal and insurance pressure whenever a wildlife incident occurs on their property.
Despite relatively few fatal attacks, this volume of reports creates constant response costs, public fear, and political pressure for the agencies and property managers responsible for public safety.
Human expansion increasingly brings communities into direct contact with protected aquatic wildlife habitats.
Shifting environmental conditions are pushing native animals into new zones, increasing human–wildlife conflict.
Cities, HOAs, and insurers face growing legal and financial pressure to protect residents from wildlife threats.
Recent breakthroughs in AI deployed at the network edge make continuous, real-time wildlife monitoring technically and economically viable for the first time.
No established incumbent owns wildlife risk intelligence today — leaving the category wide open.
Most companies are never breached in a given year, and budgets aren't sized to that base rate — they're sized to the catastrophic financial, legal, and reputational cost when it happens once. Wildlife risk follows the same logic.
Acoustic gunshot detection evolved from an optional add-on to a standard urban safety tool.
Early-warning flood detection became indispensable for disaster preparedness.
Advanced wildfire monitoring is now a standard requirement in at-risk communities.
CrocAlarm is built around imaging sonar — chosen because it works where cameras fail: murky water, darkness, heavy vegetation, and zero-visibility conditions.
Our roadmap points toward autonomous, solar-powered sonar nodes deployed along the human-occupied edges of a water body — docks, seawalls, canal banks, and swim zones — rather than a single sensor in open water. Coverage is designed from the edges inward, aimed at the zones people actually enter, so the system can protect the perimeter people occupy rather than attempt to observe an entire water body at once.
That data — proprietary, real-world, and continuously collected — is what will ultimately train the detection and classification models at the core of WildlifeOS.
Passive-first sensing with low-power active sonar. Detection informs response — the system is not designed to contact, deter aggressively, or harm the animal. Wildlife-welfare review is a Phase 1 requirement, not an afterthought.
Our field trials are explicitly designed to measure real-world false-positive rates before any commercial accuracy claim is made. We'll publish validated figures when we have them — not before.
CrocAlarm is sonar-first. Nodes listen to the water column, not the shoreline. No facial recognition, no continuous video of private property — event-based data retention only.
Alerts are designed to route to community managers and, where appropriate, licensed responders under established nuisance-wildlife protocols. The goal is fewer surprise encounters — for people and for the animal.
This is a conceptual prototype of the operator experience we are designing — not a live system. It shows how detection, alerts, and incident data would come together for a community or agency operator.
In the target architecture, camera imagery is used to validate sonar contacts and improve dataset labeling — a supporting sensor, not the primary detector.
An illustrative walkthrough of the detection-to-response pipeline the platform is being designed around.
Adjust water condition and distance — they influence the detection confidence below.
Contact registers on the sonar return.
On-device model evaluates target shape and motion.
Successive returns refine the classification confidence.
Position, trajectory, and proximity to the edge are evaluated.
Beacon, SMS, and dashboard notification dispatched.
Event logged to the incident queue with full sensor context.
Community or agency operator is notified for follow-up.
These renderings reflect real, ongoing work. A formal system architecture and requirements engagement with our hardware engineering partner is underway now — final specifications for the sonar platform, enclosure, and power system are still being locked down.
Imaging sonar is not cheap today, and we're not pretending otherwise. We're proving detection performance on best-available hardware first, then moving sourcing to OEM manufacturing partnerships to bring per-unit cost down for HOA- and municipal-scale deployment — engineered first for proof, priced for scale as we grow.
Concept rendering of the edge-mounted node architecture, reflecting engineering work underway now. Components and specifications are still being validated with our hardware engineering partner.
Rather than a single sensor placed in open water, the target architecture places autonomous, solar-powered sonar units along the shoreline — docks, seawalls, and canal banks — each aimed outward toward the zone people actually occupy.
This edge-first approach is designed for higher reliability in continuous outdoor operation, and maps naturally to how protected area — and pricing — scale per site.
Primary sensing element. Solid-state multibeam under evaluation for identifiable target range in low-visibility water.
Power architecture sized for continuous, unattended outdoor operation between service intervals.
Supporting sensor used to validate sonar contacts and accelerate dataset labeling — not the primary detector.
Marine-rated housing engineered for continuous exposure to heat, humidity, and biofouling.
Edge-mounted deployment topology — multiple fixed-position nodes aimed outward from docks, seawalls, and canal banks — is the coverage model currently being evaluated, in place of a single mid-water sensor.
The architecture is designed to generalize across species and geographies using the same sensing, modeling, and compliance stack.
Focused on Florida communities: HOAs, golf courses, canals, retention lakes, and municipal waterfront assets.
SharkAlarm is the next planned product, extending the same edge AI classification, alerting, and data platform — not the same sensor — to new species, sensor modalities (computer vision, thermal, acoustic), and geographies over time.
WildlifeOS aims to become the system of record for wildlife risk — the intelligence layer institutions rely on for safety, liability, and compliance.
Canals, retention ponds, and community lakes sit adjacent to homes, walkways, and docks across Florida. Boards and property managers currently rely on signage and resident reports — and for many residents, the water's edge is where a dog is walked every day.
Florida HOA and property-management channels are the primary go-to-market path for initial deployments, focused on the highest-liability, highest-visibility communities.
Water hazards, cart paths, and tee boxes place golfers and staff repeatedly near crocodilian habitat throughout a round.
Coverage is designed around protected linear footage of course frontage — not total pond area — matching how courses actually experience risk.
Guest-facing waterfront amenities carry high visibility and high reputational stakes when an incident occurs.
Marinas and resort waterways are included in the broader Florida wedge alongside HOAs and municipal sites.
Cities and counties field thousands of public wildlife calls annually with limited tools to triage genuine risk from routine sightings.
Florida wildlife agencies alone receive 15,000–20,000 alligator-related public calls every year.
Florida's Statewide Nuisance Alligator Program (FWC) dispatches independently contracted trappers to locate and remove animals reported through the Nuisance Alligator Hotline — roughly 15,000–20,000 complaints a year statewide. A trapper is typically dispatched to a general location with no way to confirm whether the animal is still there, still visible, or long gone.
CrocAlarm has no authority to capture or remove an animal — under Florida law, that stays with FWC-contracted trappers. The goal is to make an already state-mandated job faster and safer once a site is monitored, not to replace the people doing it.
Indicative pricing for early deployments — final packaging is confirmed during pilot scoping.
Node hardware priced per unit, sized to your site's frontage — quoted after a short site walkthrough.
Indicative $100–$150 per device, per month, for real-time detection, alerts, analytics, and OTA updates.
Multi-year bundled agreements ($25K–$150K+ annually) for larger portfolios, HOAs, and municipal contracts, including SLAs and integration support.
Pricing shown is indicative and will be finalized through pilot partnerships. Request a pilot for a site-specific quote.
Wildlife risk is one of the largest unstructured risk categories in the physical world — and it has no system of record.
~250K–400K targetable sites (canals, HOAs, waterfront assets). $250M–$400M hardware TAM. $300M–$720M SaaS ARR potential.
Crocodiles & alligators: $2B–$5B+ annual impact. Sharks: $500M–$2B+ annual impact, driven by liability, tourism disruption, and insurance pressure.
Multi-species expansion across snakes, large mammals, and agriculture. Broader wildlife-risk category: $50B–$200B+ annual economic impact.
Florida is the proving ground, not the ceiling. Crocodilians are documented in 87 countries across Africa, Asia, the Americas, and Australia, with an estimated 1,000 fatal attacks occurring worldwide every year (crocattack.org). Sonar is the right first sensor for Florida's murky canals — computer vision, thermal, and acoustic sensing extend the same edge AI and data platform to sharks, large mammals, and other species as WildlifeOS expands.
Tank and controlled environments used to capture labeled crocodilian movement signatures.
Build the initial labeled sonar dataset and train early detection and classification models.
Deploy in 5–10 controlled real environments to validate detection accuracy and false-positive rates.
20–50 real-world deployments to generate continuous dataset and customer validation.
Generate logs, reporting, and audit trails; begin positioning for underwriting and mandates.
MBA, Cornell University / University of Miami. Serial founder with prior exits and $20M+ raised. Leads commercialization, capital strategy, and the investor narrative.
PhD: Tel Aviv University / MIT / Cornell. 20+ years leading federally funded programs (NSF, USDA, NOAA). Owns deep tech and R&D.
Director at Qualcomm. Co-founder/CEO of Hackster.io (acquired by Avnet). Early investor/CXO at Edge Impulse (acquired by Qualcomm).
Whether you manage a community, a course, a resort, or a portfolio of waterfront assets — or you're an investor exploring the category — let's talk.