One Integrated System.
Total Network Control.
ICL8-WC182
Wireless CAN Bus Bridge
Stop cobbling together gateways, radios, and CAN adapters. The CRATUS INTERCAL8 Wireless Dual CANBUS Bridge “ICL8-WC182” does it all, wired and wireless, as one highly integrated subsystem. It is ready for integration into larger systems or standalone applications as one ruggedized package, ready for the field. It features dual wireless links, WiFi or Proprietary wireless mode.
Industrial Networks Need Integrated Solutions
Engineers building CAN FD networks today are forced to piece together multiple components — each with its own power requirements, firmware stack, and integration risk.
- Separate CAN gateway + wireless radio + field power supply + protocol bridge
- Multiple power rails to manage — 5 V, 12 V, 3.3 V all run separately
- 3–5 boards per node. More failure points, more enclosure space, more wiring
- Weeks of integration work just to get CAN data to the cloud
- Field updates require physical access to every node
- Higher BOM cost, larger PCB area, longer lead times
- One board handles CAN FD, wireless, power conditioning, and cloud connectivity
- Single 9–36 VDC input. Onboard SMPS + LDO + isolated DC/DC
- One ICL8-WC182 per two CAN networks. Less wiring, fewer failure points. Single and quad versions available
- Plug in power, set the DIP address — network is live in minutes
- OTA firmware updates pushed wirelessly over Wi-Fi to every node simultaneously
- Lower total system cost. Fewer vendors, one firmware ecosystem, faster time to market
How We Compare
See why engineers who've tried the fragmented approach keep switching to a single, purpose-built platform.
| Capability | Cratus DW-DCAN Board | Multi-Board Approach | Generic CAN Gateway |
|---|---|---|---|
| Dual CAN FD channels | ✓ Both channels, simultaneous | Possible — extra board | Usually 1 channel |
| Wireless (Wi-Fi + P2P radio) | ✓ Dual Wireless Onboard | Add-on module required | x Not included |
| Power conditioning (9–36 V) | ✓ Onboard SMPS + LDO + isolation | x Separate PSU needed | x External supply only |
| OTA firmware updates | ✓ Dual-bank, over Wi-Fi | Per-device, manual | x Not supported |
| Hardware node addressing | ✓ 64 addresses via DIP switch | x Firmware only | x Firmware only |
| RJ45 daisy-chain (power + CAN) | ✓ Single cable per node | x Separate power + signal runs | x CAN only, no power |
| ESD protection (±8 kV HBM) | ✓ On both CAN buses | Varies by component | Usually ±2 kV |
| Industrial temp range (–40 to +85 °C) | ✓ Full range, all components | Depends on selection | Often 0 to +70 °C |
| Time to first packet | ✓ <5 minutes, no firmware config | Hours to days of integration | 30–60 minutes |
The Complete Platform Your System Deserves
Purpose-built for demanding field deployments — so you spend less time on integration headaches and more time shipping product.
Full Technical Specifications
All parameters unless otherwise noted apply over –40 °C to +85 °C after thermal stabilization.
| Core | ARM Cortex-M7 |
| Clock Frequency | 480 MHz |
| Internal Flash | 128 KB |
| SRAM | 1 MB |
| External NOR Flash | 16 Mbit SPI |
| FPU | Hardware (single & double) |
| Input Voltage | 9 – 36 VDC |
| Input Current (idle) | 35 mA typ |
| Input Current (full load) | 1000 mA typ / 1200 mA max |
| 5 V Rail (SMPS) | 4.85 – 5.15 V, 2 A max |
| 3.3 V Rail (LDO) | 3.2 – 3.4 V, 3 A max |
| SMPS Efficiency | 92% typ @ 24 V, 1 A |
| Isolated Output | 24 V / 20 W, 833 mA max |
| Isolation Voltage | 2000 VDC (1 min) |
| Input Voltage (V-IN) | –0.3 to 40 V |
| Reverse Input | –40 V (ideal-diode protected) |
| CAN Bus (CANH/CANL) | ±27 V transient |
| CAN ESD (HBM) | ±8000 V |
| USB VBUS | –0.3 to 5.5 V |
| Storage Temperature | –65 to +150 °C |
| Data Rate (CAN FD) | Up to 2 Mbps |
| Data Rate (Classic CAN) | Up to 1 Mbps |
| Channels | 2 × independent (ISO 11898-2) |
| Bus Fault Protection | –58 to +58 V |
| Common-Mode Range | ±12 V |
| Bus Termination | 120 Ω switchable (per channel) |
| Loop Delay (TXD→bus) | 80 ns typ / 145 ns max |
| Standby Current | 5 µA typ per channel |
| Module | 2X Wireless |
| WL1 — Protocol | 2.4GHz P2P |
| WL2 — Protocol | 802.11 b/g/n Wi-Fi |
| Wi-Fi TX Power | 20 dBm max |
| Wi-Fi Data Rate | 150 Mbps (HT40) |
| RF Range (LOS) | 200 m typ |
| Bluetooth | 5.0 LE |
| CAN Connectors | 2 × Dual-port RJ45 (J3, J4) |
| Power Input | 4-pos screw terminal (T1) |
| USB | Type-C (virtual COM port) |
| Debug/Program | 10-pin SWD (1.27 mm) |
| UART Header | 6-pin, 2.54 mm (TTL-232R-3V3) |
| Node Addressing | 6-position DIP (64 addresses) |
| User Buttons | 2 × tactile + power reset |
| Status LEDs | Power (red), system (blue), fault (yellow) + bi-color RJ45 |
Where This Subsystem Gets to Work
Engineered for the most demanding real-world deployment environments across industries.
How It All Connects
Every subsystem engineered to work together — from the power rail to the wireless antenna.
Typical Application
A Multi-Node CAN FD Network with Cloud Telemetry
Imagine a fleet of machines on a factory floor. Each machine hosts one Cratus board. The boards communicate over CAN FD with local sensors and actuators. Each board relays live telemetry wirelessly to a central gateway. The system also pushes data to your cloud dashboard over Wi-Fi — and handles OTA firmware updates automatically.
Up and Running in Minutes
No complex configuration. Hardware does the heavy lifting so your team hits the ground running.
Connect Power
Plug in 9–36 VDC via screw terminal or the RJ45 daisy-chain. The board's ideal-diode controller protects against reverse polarity and surges — the moment power is applied, the system begins bringing up rails automatically.
Set Your Node Address
Flip the 6-position DIP switch to your desired node ID (0–63). No firmware changes, no tool required. Every board in your network gets a unique address in seconds.
Join the Network
Daisy-chain boards with Cat5e/6 patch cables. The MCU auto-initializes both CAN FD channels and the wireless modules come online within 300 ms. Your entire network is live.
Stream & Control
CAN FD data flows between nodes. Telemetry is relayed via ESP-NOW to a gateway, and Wi-Fi pushes live data to your cloud dashboard or MQTT broker. Everything just works.
Update the Fleet, Remotely
New firmware? Push an OTA update over Wi-Fi to every board in the field simultaneously. Dual-bank boot ensures a safe rollback if anything goes wrong. Zero downtime.
“We replaced three boards — a CAN gateway, a wireless module, and an external PSU — with a single Cratus board. Integration time dropped from three weeks to two days. It just works.”
Build Your Network.
Ship Faster. Break Less.
Get in touch with the Cratus team for pricing, volume discounts, custom configurations, and engineering support. Most customers go from inquiry to first prototype in under two weeks.