12 CHANNELS · 0.1% FS ACCURACY
Capture any signal
Twelve input channels spanning analog, digital, BLE, Wi-Fi, and serial. Pluggable sensors for motion, environmental, RF, and more.
WB-1 · v1.0 now shipping
Orchestrate the air.
Devices don’t speak the same language. The Bobulator translates — in real time.
The Wireless Bobulator is a modular device that aggregates signals from any source, processes them through a real-time orchestration engine, and broadcasts coordinated output across your facility, gym, factory, or venue.
A control plane for the wireless layer.
Most devices either receive or transmit. The Bobulator does both — simultaneously, intelligently, and with sub-millisecond timing.
8.0ms ± 0.4ms · 1kHz TICK
Process in real time
Dual-core SoC runs the Bobulation Engine — a fusion + decisioning layer that resolves conflicts, prioritizes, and routes signals.
3 RADIOS · 200m LINE-OF-SIGHT
Broadcast everywhere
BLE 5.3, Wi-Fi 6, and LoRa in one box. One device, three radios, simultaneous transmission to hundreds of endpoints.
REST + WS · 64KB RULE DSL
Open API, no lock-in
REST + WebSocket control plane. Define rules in YAML, push them to the fleet, observe everything in a live dashboard.
01Architecture
Five layers. One orchestrated device.
From sensor input to wireless broadcast, every signal passes through a deterministic pipeline tuned for low latency and high reliability.
01 / 05
Twelve mixed-signal channels enter one timestamped frame.
frame.raw[12]The hardware is honest. The software is where the magic happens.
02The Bobulation Engine
The brain inside the box.
Hardware is commoditized. Software is not. The Bobulation Engine is the layer that decides what to amplify, dampen, route, ignore, and actuate — in under 8 milliseconds.
- Multi-input fusion — combine up to 12 channels with weighted confidence
- Real-time decisioning — rule engine + optional on-device ML
- Conflict resolution — deterministic priority + freshness scoring
- Context-aware routing — route by device, location, time-of-day, user identity
rules/gym-entrance.bob
# soft-open the floor on the early shiftrule "gym-entrance-soft-open": when: - sensor.door.reed == CLOSED - time_of_day() in "06:00-09:00" then: - light.zone.2.fade_to(30%, over=5s) - audio.zone.2.play("morning-warmup.m3u") - hvac.zone.2.setpoint = 68 - log.info("auto-warmup-triggered", room="main-floor")
·The Hardware
Dissect the puck.
Eight systems share one machined shell. Isolate a callout to see what each component owns, then follow the full hardware path into the WB-1 technology brief.
- Triple-radio · BLE 5.3 / Wi-Fi 6 / LoRa
- USB-C power + console · PoE optional
- Aluminium shell · 86 mm × 24 mm
Select a system to isolate its leader line.
03Wireless Topologies
Pick the topology that fits the room.
Hub Model
One Bobulator. Many devices.
- Best for single-floor or single-room installations
- Centralized rules + audit trail
- Easiest to deploy and manage
Most common
Mesh Network
Many Bobulators. Shared state.
- Scales across large facilities, campuses, gyms
- Redundant — no single point of failure
- Each Bobulator can act independently or in concert
Edge + Cloud Hybrid
Local first. Cloud for the heavy lifting.
- Local latency for real-time decisions
- Cloud coordination for fleet-wide analytics and ML
- Works fully offline — syncs when reconnected
04Use cases
Built for environments that move.
Sports
01
Sports facilities
Real-time signal routing for courts, fields, gym floors — from shot clocks to scoreboards to floodlights.
Read the scenario → Buildings02
Smart buildings
Lighting, access, HVAC, occupancy — coordinated as one system, not ten. One device instead of twelve.
Read the scenario → Industrial03
Industrial automation
Sensor fusion for predictive maintenance, safety interlocks, and operator-facing dashboards on the factory floor.
Read the scenario →05Design-partner evidence
Measured in rooms that fight back.
Read all case studies →“Before the Bobulator, every tournament started with someone walking the courts and chasing clocks. Now one reviewed rule leaves every court together.”
“The useful change was not another dashboard. It was proving why the line stopped, in order, while the evidence was still warm.”
“We stopped treating every room flip like a new integration. The state follows the wall plan, and the show keeps its cues when the uplink does not.”
·ATLANTA GA · 33.75°N
Built in Atlanta.
The WB-1 is engineered, assembled, and shipped from Atlanta, Georgia. Boards are populated locally, then flashed, calibrated, and functionally tested in-house before any unit gets a serial number.
05Specs
Numbers that matter.
- Inputs
- 12 channels (analog, digital, I²C, SPI, UART)
- Radios
- BLE 5.3, Wi-Fi 6 (2.4/5 GHz), LoRa (868/915 MHz)
- Compute
- Dual-core SoC (Cortex-M7 + ESP32)
- Latency
- < 8 ms sensor-to-broadcast
- Power
- USB-C PD or 18650 battery pack, 12 h standby
- Management
- REST + WebSocket, YAML rule engine, web dashboard
06v1.0 · 2026-11 · REV 1.0
What’s new in v1.0.
The first production release. Four things that weren’t in the prototype and changed what the box can do.
- 01
Three radios, concurrent
BLE 5.3, Wi-Fi 6, and LoRa transmit at once on independent antennas with >20 dB isolation — no time-sharing.
- 02
Dual-SoC architecture
A Cortex-M7 owns the deterministic path; an ESP32 owns the radios and web stack. A slow request can’t stall a deadline.
- 03
Mesh fallback
A degraded radio escalates its traffic to mesh neighbours, so a single RF failure downgrades range instead of dropping the link.
- 04
64 KB rule DSL
A declarative YAML engine that compiles to a static graph and still ticks in single-digit milliseconds. Hot-reload, fleet push.
Build something that orchestrates.
Join the first 50 teams piloting the Wireless Bobulator. We’re shipping units now and onboarding customers personally.
If you’re not bobulating, what’s the point?