Smart Low-Voltage Motor Control Center (MCC) VFD-Ready & Remote Monitoring
Reliable MCC solutions designed for US industries with NEMA compliance. Our low-voltage motor control centers integrate VFDs, remote monitoring, and energy-saving features for manufacturing, utilities, and water treatment plants.
Key Features
- HVAC Systems: Regulates heating, cooling, ventilation, and air quality with zone-specific control for offices, malls, and industrial spaces
- Lighting Control: Enables smart lighting with motion sensors, timed operation, and scene-based settings for various environments
- Power Management: Monitors and distributes power with energy tracking and overload protection capabilities
- Security Integration: Compatible with access control systems including RFID, facial recognition, and surveillance cameras
Technical Specifications
Attribute |
Details |
Usage |
Electrical equipment storage/Industrial/Building Control |
Material |
Metal |
Mounting Type |
Wall-mounted, Floor Standing, Pole Mount |
Certifications |
CE/UL |
Lock Type |
Key lock |
Customization |
DEPEND ON REQUIREMENTS |
Standard Dimensions
Type |
Dimensions (H × W × D, mm) |
Wall-mounted |
500 × 400 × 150 to 1200 × 1000 × 200 |
Floor-standing |
1400 × 600 × 500 to 2200 × 800 × 800 |
Special Sizes |
508 × 508 × 254 (20in) to 762 × 762 × 254 (30in) |
Custom |
Available upon request |
IP Rating Specifications
IP Rating |
IP20 |
IP54 |
IP55 |
IP65/66 |
Configuration Guidelines
1. Protection Level (IP Rating)
- Match the IP rating to the installation environment: Use IP54 for indoor dry areas and IP65 for outdoor, dusty, or humid settings.
- Ensure the enclosure is dustproof, waterproof, and anti-corrosive.
- Key consideration: Prevent damage to internal components and meet on-site environmental standards.
2. Dimension & Installation
- Design dimensions to fit internal parts (e.g., controllers, modules), with 15-20% extra space reserved for wiring and heat dissipation.
- Support 35mm DIN rail mounting, as well as wall-mounted or floor-standing installation.
- Key consideration: Enable easy installation of internal components and fit the available on-site space (e.g., use a compact width for narrow rooms).
3. Material Selection
- Choose materials based on usage scenarios:
- Cold-rolled steel (1.2-2.0mm thick) for cost-effective indoor use;
- 304/316 stainless steel for outdoor or corrosive environments (e.g., chemical plants);
- Aluminum alloy for lightweight needs (e.g., mobile setups).
- Apply surface treatment: Powder coating (for anti-scratch performance) or galvanizing (for anti-rust protection).
- Key consideration: Balance cost, durability, and environmental adaptability; ensure material thickness meets structural stability requirements.
4. Heat Dissipation
- For heat-generating components (e.g., high-power relays), add vents (with dust nets) or cooling fans to keep internal temperature below 40℃.
- Design heat dissipation channels to avoid hot air buildup.
- Key consideration: Prevent component failure due to overheating; avoid condensation in humid areas caused by poor ventilation.
5. Safety & Operation
- Equip the enclosure with a lockable door (to prevent unauthorized access) and an emergency stop button if required.
- Reserve cable entry holes (fitted with rubber grommets) that match the size and quantity of cables.
- Key consideration: Enhance operational safety; simplify wiring and reduce cable wear.
6. Compatibility & Expansion
- Reserve space for future installation of expansion modules (e.g., extra terminal blocks or controllers).
- Ensure the door opens to an angle of ≥90° for easy maintenance of internal components.
- Key consideration: Meet long-term project expansion needs; simplify daily inspection and repair work.
7. Marking & Identification
- Attach clear labels (e.g., “Power Input,” “Signal Output”) on the enclosure door or internal panels.
- Mark the cabinet model, rated voltage, and manufacturer information on the exterior.
- Key consideration: Improve operational efficiency; comply with electrical safety labeling regulations.