forede Remote Control Monitor offers a rugged and durable design, suitable across various operations, including wildland fire fighting, deicing, fixed site facility, dust control and front bumper turret. The Wireless Remote Control Monitors are technologically advanced electric deck monitors. Wireless remote control facilitates effective use of personnel and lowers the potential risk of injury from manual operations.
Key Features
* Aluminium alloy construction,hard anodized;
* Constant or Selectable nozzle;
* Vertical travel of 180°,from -90° to +90°;
* 360° rotation horizontally;
* Electric control jetting Pattern: Straight stream,Fog;
* Electric.driver and control unit box are waterproof;
*Optional power supply 12V/24V DC(optional),or 100-230AC.
Key Users
* Fire & Rescue Services
* Oil & Gas
* Petrochemicals
* Fuel Storage Sites
* Major Industrials
* Aviation
Model Number |
PSKD8/20W-B |
PSKD8/30W-B |
PSKD8/40W-B |
PSKD8/20-40W-B |
Flow Rate |
1200 LPM Constant Flow |
1800 LPM Constant Flow |
2400 LPM Constant Flow |
1200-1800-2400 LPM Selectable Flow |
Working Pressure |
8 Bar |
8 Bar |
8 Bar |
8 Bar |
Max. Reach |
50 meters |
60 meters |
65 meters |
50-65 meters |
Max. Fog Angle |
120° |
Max Range Of Motion |
-90° to +90° Vertically, 340° Rotation,other degree available |
Power Supply |
DC 24V is standard |
Power Consumption |
≤200W |
Waterway Size |
2 1/2" (65mm) |
Monitor Outlet |
2 1/2" (65mm) NH male thread |
Monitor Inlet |
Flange 2.5" ANSI 150# is standard,other size and standard available |
Material |
Monitor & Nozzle- Hard coated anodized aluminium alloy |
Control System |
ICS-01 or VMCS-01 |
Installation Instructions

1. Impact of Flow Rate on Water Source Pressure
Q: When using the Selectable Flow mode and adjusting to a higher flow rate, how does it affect the pressure of the connected water source, and will it cause issues for the overall water supply system?
A: Increasing the flow rate in Selectable Flow mode will typically lead to a corresponding pressure drop in the water source, as per fluid dynamics principles. However, the fire monitor is engineered to operate within a stable working pressure range (8 Bar). As long as the water supply system has sufficient capacity and pressure - regulating capabilities, it won't disrupt the overall system. For optimal performance, ensure the water source can meet the peak flow demands without excessive pressure loss.
2. Dust - Laden Environments and Material Durability
Q: In a dusty industrial plant, will long - term dust accumulation on the hard - anodized aluminum alloy housing affect the monitor's performance and service life?
A: The hard - anodized aluminum alloy offers good wear and corrosion resistance. But prolonged dust buildup may impede heat dissipation (critical for electronic components) and introduce corrosive particles. Regular cleaning (e.g., monthly) to remove dust and debris is recommended to maintain performance and extend the service life.
3. Waterproof Rating and High - Pressure Water Exposure
Q: The electric driver and control unit are waterproof, but can they withstand direct high - pressure water jetting (e.g., accidental spraying from firefighting hoses)?
A: While rated for water resistance (e.g., against splashes or damp conditions), direct high - pressure water jets exceed standard waterproof protections. This may damage internal electrical components. Install protective shields or position the unit away from high - pressure water paths. In extreme cases, consult the manufacturer for reinforced waterproof solutions.
4. Voltage Fluctuations and System Stability
Q: With a standard DC 24V power supply, how do small voltage fluctuations (e.g., ±5%) affect the monitor's operation?
A: The fire monitor incorporates voltage regulation modules to handle minor fluctuations (±5% is typically within tolerance). These modules stabilize power to motors and control circuits, ensuring consistent operation. For larger fluctuations, use external voltage stabilizers to protect the system.
5. Maneuverability in Complex Layouts
Q: In a factory with dense equipment and pipelines, how to program the 340° horizontal and - 90° to + 90° vertical rotations to avoid collisions?
A: Conduct on - site mapping before installation. Use the control system to set rotation limits, defining safe zones that avoid obstacles. Manually test movements and mark boundaries. For advanced setups, integrate collision - avoidance sensors or use software to pre - program optimal paths based on the layout.
6. Compatibility of Control Systems
Q: What are the differences in compatibility and communication protocols between the ICS - 01 and VMCS - 01 control systems when integrating with a central fire control system?
A: ICS - 01 often uses universal protocols (e.g., Modbus) for basic integration with most fire control systems. VMCS - 01 may support custom protocols for advanced features like real - time status monitoring, fault alerts, and synchronized operations. Refer to the manufacturer's documentation and test compatibility during setup.
7. Water Quality and Maximum Range
Q: To achieve maximum reach, does the water source require a specific level of cleanliness? How do impurities affect performance?
A: Impurities in water can clog nozzles, disrupting flow patterns and reducing maximum range. Use water filters to remove debris and ensure the source meets basic cleanliness standards. Regularly inspect and clean nozzles to maintain optimal performance.
8. Long - Term Storage Maintenance
Q: What maintenance steps are needed to keep the monitor operational during long - term storage (e.g., as a backup system)?
A: Store in a dry, ventilated area. Conduct quarterly inspections: power on to test motors and controls, manually operate moving parts (applying lubricant as needed), and check for damage to seals or coatings. This prevents component degradation and ensures readiness.
9. Coordination of Multiple Monitors
Q: When multiple monitors operate simultaneously, how to avoid interference and enable coordinated firefighting?
A: Use the control system to assign unique IDs or channels to each monitor. Program zoning logic in the central control system, defining areas of responsibility and priority responses. Leverage communication features to share fire data, allowing synchronized adjustments of spray angles and flow rates for efficient coverage.
10. Performance in Extreme Temperatures
Q: How do extreme temperatures (e.g., - 20ºC or 60ºC) affect the aluminum alloy and electronic components, and what countermeasures are recommended?
A: In extreme cold, aluminum's mechanical properties may slightly degrade, and electronics may experience startup delays. In high heat, components age faster, and seals may fail. For cold environments, use thermal insulation or preheating; for high temperatures, enhance cooling (e.g., ventilation) and select high - temperature - rated seals. Always operate within the manufacturer's specified temperature range.
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