WALL MOUNT FULL BACKGUARD INSTALLATION

RECOMMENDED INSTALLATION ORDER:

1) VENT HOOD

2) BACKGUARD SYSTEM

3) COOKTOP

1.Locate and level cooktop per installation instructions.

2.After unpacking all backguard system parts, locate the Back Section 1/4” (see fig. 09) above and centered over the Trim attached to the cooktop.* Secure Back Section to wall with the appropriate fasteners (not supplied) to anchors or wood stud (fig. 09).

WARNING:

The Back Section must be securely fastened to the wall. Failure to do so could cause damage or personal injury if the Backguard was to pull free from wall when racks are loaded. The maximum weight placed on each rack should be 10 lbs.

*After 1/4” is located, slots in back section may be used to adjust spacing between cooktop trim and backguard for a flush fit.

3.Attach rod, end caps and center stanchion to Front Section of backguard with #10 machine screws supplied (fig. 10).

4.Bend wedge-shaped tabs down on top of the front section approximately 3/16”. When mounting the front section, insure that these tabs engage the mating holes in the top of the rear section (see fig. 11).

5.Secure Front Section of backguard to the Back Section with #8 self-tapping sheet metal screws supplied (fig. 11).

6.Attach racks to rod (fig. 12). The maximum weight placed on each rack should be 10 lbs.

9

US CA

BACKGUARDS FOR COOKTOPS - BGCU MODELS

Back Section

Slots to choose desired spacing between Cooktop Trim and Backguard.

1/4”

Trim

Fig.09

Bend down approx. 3/16”

Front Section

End

Cap

Center

Stanchion

#10

Machine

Screws

Rod

End

Cap

Fig.10

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Image 11
DCS BGRU, BGCU installation instructions US CA Backguards for Cooktops Bgcu Models

BGRU, BGCU specifications

DCS BGCU (Distributed Control System Base Ground Control Unit) and DCS BGRU (Distributed Control System Base Ground Resource Unit) are integral components in modern industrial automation and control systems. They play a pivotal role in managing and controlling complex processes across a variety of sectors, including manufacturing, utilities, and transportation.

The BGCU serves as the central command hub, allowing operators to monitor and control the overall system’s operations. One of its main features is its robust user interface, which provides real-time data visualization, enabling operators to make informed decisions quickly. The BGCU is designed to facilitate communication between various field devices such as sensors, actuators, and other control units, ensuring seamless data flow throughout the system.

On the other hand, the BGRU focuses on managing resources effectively. It is responsible for the aggregation, processing, and transmission of data from multiple sources, ensuring that the information is accurate and readily available. The BGRU typically includes sophisticated algorithms that analyze the data to optimize resource allocation, improving efficiency and reducing operational costs.

Both BGCU and BGRU leverage advanced technologies such as IoT (Internet of Things), machine learning, and big data analytics. IoT connectivity allows for the integration of numerous devices across different platforms, creating a comprehensive control environment. Machine learning algorithms can predict equipment failure and maintenance needs, significantly reducing downtime and enhancing system reliability.

Another critical characteristic of DCS BGCU and BGRU is their scalability. They can be designed to fit the specific needs of an organization, whether for a small facility or a large industrial complex. This flexibility is crucial in adapting to evolving technological demands and operational requirements.

Furthermore, cybersecurity is a paramount concern with these systems. Both units are equipped with advanced security protocols to protect against unauthorized access and ensure data integrity. Encryption, firewalls, and continuous monitoring are standard measures implemented to safeguard sensitive information.

In conclusion, DCS BGCU and BGRU are essential elements in the effective management of industrial processes. By integrating powerful technologies and featuring robust controls, they contribute significantly to improving efficiency, enhancing safety, and ensuring optimal system performance across diverse applications in the industrial landscape.