Product Overview
The 8BVI0055HWD0.000-1 (8BVI0055HWD0.0001) is a high-precision inverter module belonging to the B&R ACOPOSmulti series, designed for advanced motion control and energy-efficient drive solutions. This unit is engineered to manage power conversion within multi-axis drive systems, commonly deployed in high-speed packaging, CNC machining, and automated assembly lines. By utilizing the ACOPOSmulti platform, the 8BVI0055HWD0.000-1 contributes to a reduced cabinet footprint and optimized power distribution via a common DC bus. Its robust design ensures stable operation in demanding industrial sectors such as textile manufacturing and metal processing, where precise torque and speed control are critical to maintaining production uptime.
Technical Configuration
As an integral component of the ACOPOSmulti ecosystem, this inverter drive is characterized by its modular hardware architecture and high-voltage DC bus compatibility.
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DC Bus Integration: Optimized for operation within a shared DC bus environment, supporting voltages up to 900 VDC to maximize energy recovery and distribution between motoring and braking axes.
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Precision Control Power: Operates on a stabilized 25 VDC input voltage (plus or minus 1.6%) for internal logic and control circuits, ensuring immunity against fluctuations in the primary power supply.
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Internal Circuit Protection: Features a low internal resistance (0.5 Ohm) and a defined extinction potential (approx. 30 V) to safeguard sensitive electronic components during rapid switching cycles or power-down sequences.
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Thermal and Environmental Protection: Rated at IP20 (front side), the module is designed for installation in control cabinets with controlled ambient conditions, providing protection against solid foreign objects.
Technical Specifications
| Feature |
Details |
| Model |
8BVI0055HWD0.000-1 |
| Brand |
B&R Industrial Automation |
| Product Type |
Inverter Drive / Inverter Module |
| Max. DC Bus Voltage |
900 VDC |
| Control Input Voltage |
25 VDC (plus or minus 1.6 percent) |
| Continuous Current |
1.1 A |
| Internal Resistance |
0.5 Ohm |
| Extinction Potential |
Approx. 30 V |
| Protection Rating |
IP20 |
| Shipping Weight |
4.5 kg |
FAQs
What is the significance of the 25 VDC input for this drive?
The 8BVI0055HWD0.000-1 requires a specific 25 VDC supply for its internal electronics. This slightly higher-than-standard voltage (compared to 24 VDC) accounts for potential voltage drops across the backplane and ensures the drive logic remains active even during heavy load transients on the DC bus.
Can this module be used in a standalone configuration?
No, the ACOPOSmulti inverter modules are designed to be part of a larger drive system. They must be mounted on the appropriate backplane and connected to a common DC bus supplied by a power supply module (8BVP series).
How is the cooling handled for this specific inverter?
The 4.5 kg weight reflects a substantial heat sink and internal thermal management system. Depending on the backplane configuration, cooling is typically achieved through forced air within the cabinet or cold-plate mounting.
Engineering Guidelines and Safety Protocols
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DC Bus Safety Discharge: WARNING: High voltage (up to 900 VDC) may remain present on the DC bus terminals long after the main power is disconnected. Always use a calibrated multimeter to verify that the DC bus voltage has dropped below 50 V before performing any wiring or maintenance.
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Backplane Alignment: When installing the module into the ACOPOSmulti rack, ensure that the power and signal connectors are perfectly aligned before applying pressure. Misalignment can damage the high-current DC bus contacts, leading to arcing and localized overheating during operation.
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Shielding and Grounding: To minimize electromagnetic interference (EMI), ensure that motor cables are properly shielded and that the shield is clamped to the grounding plate at the bottom of the drive. Maintain separation between high-voltage DC bus cables and low-voltage communication lines.
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Tightening Torque: All power terminals must be tightened to the manufacturer's specified torque settings. Loose connections on the DC bus or motor phases can result in catastrophic failure of the inverter bridge due to contact resistance.