Rigging and Lifting

Get third-party confirmation that the crane owner and the crane operator are in compliance with applicable laws, regulations and internal safety standards;

Consult with the crane owner to determine if any site preparation is required for outriggers—improper use of outriggers is a significant cause of crane failure;

Determine the level of supervision to be supplied by the crane owner; and

Review all crane maintenance and inspection records, including without limitation, the crane log book, main- tenance records, inspection reports and the physical condition of the crane.

Take all Appropriate Measurements

Understand and interpret the load charts;

Review all Compressor drawings for unit size, weight, center of gravity and other specifications;

Communicate incident response procedures in writing prior to the lift and verbally immediately before the lift;

Determine the initial position, final position, orientation and elevation of the Compressor;

Ensure that adequate space is provided to safely assemble, erect, and operate the crane and materials (such as timber mats, cribbing and blocks);

Identify and communicate to all Participants the access points, lift radius, swing radius, clearances, and ob- structions;

Eliminate hazards and obstructions that may interfere with moving the Compressor; and

Inform all Participants of water lines, sewer lines, power lines and other obstructions.

Use Proper Rigging Methods

Determine diameter, length and quantity of necessary rigging hardware (design and detail the rigging hard- ware to suit lifting the Compressor at the supplied pad eyes);

Review and inspect all hoisting, lifting and rigging equipment;

Select shackle size and prepare sketches or drawings for rigging;

Use proper, conservative rigging techniques—including spreader beams—needed to lift the Compressor;

Pad sharp corners, check the orientation of chocker hitches and the orientation of hooks;

Prevent the binding of hoist rings; and

Verify pad eye information.

TEST AND BALANCE THE COMPRESSOR

It is essential to test and balance the compressor before executing the actual lift in order to identify potential causes of injury to Participants and the Compressor.

Secure Rigging and the Lift Site

Reiterate that no one should walk under the raised load;

Secure and restrict access to the lift area (consider vacating all non-essential personnel from the area);

Provide qualified supervision for the duration of the lift;

If applicable, assess the weather conditions and decide if it is safe to proceed;

Stop the lift when any potentially unsafe conditions are recognized; and

Ensure there are open channels for communications during the pre-lift, lift and post-lift phases (radio commu- nications should be used if a direct line of sight is not possible).

Test and Balance the Compressor before the Lift

Slowly raise the crane to take slack out of the rigging without actually lifting the load;

Allow the rigging gear to settle into place;

Check for twists and binds;

Verify that all padding has remained in place and that all slings are protected from sharp edges;

Begin to raise the load to verify balance and check the braking system; and

If the Compressor is not balanced, lower and adjust as necessary.

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Emerson VSR, VSM, VSS service manual Test and Balance the Compressor

VSS, VSM, VSR specifications

Emerson VSM, VSR, and VSS are advanced technologies designed for process automation and control, often utilized in industrial applications. These systems are part of Emerson's broader portfolio of solutions aimed at enhancing operational efficiency, safety, and reliability.

The Emerson VSM, or Valve Signature Management, focuses on the digital management of valves within a system. One of its main features includes advanced diagnostics that monitor the health and performance of control valves. This technology allows for predictive maintenance, ensuring that valves operate at peak efficiency and reducing the risk of unexpected failures. The VSM utilizes a combination of smart sensors and actuators to gather data, enabling real-time analytics that can enhance decision-making and operational strategies.

On the other hand, VSR, or Valve Status Reporting, enhances visibility into the operational state of valves in real time. This system provides operators with critical updates and alerts related to valve conditions, significantly reducing response times to potential issues. The VSR technology integrates seamlessly with existing control systems, allowing for easier implementation and minimal disruption to ongoing operations. The reporting capabilities feature user-friendly dashboards that present complex data in a straightforward manner, empowering operators to make informed decisions quickly.

The Emerson VSS, or Valve Service Solutions, complements the VSM and VSR by focusing on the maintenance and support of valve systems. This offering includes comprehensive service packages that range from routine maintenance to advanced troubleshooting and repair. The VSS is designed to improve the lifespan of valves through proactive service, ensuring reliability and minimal downtime. Emerson’s trained technicians leverage predictive analytics derived from VSM and VSR data, allowing for timely intervention before issues escalate.

In summary, Emerson’s VSM, VSR, and VSS technologies work together to create a robust ecosystem for valve management in industrial settings. The combination of advanced diagnostics, real-time reporting, and comprehensive service solutions provides operators with a powerful toolkit aimed at optimizing performance and ensuring operational reliability. With these technologies, companies can embrace digital transformation, reduce operational risks, and improve overall process efficiency, leading to a safer and more productive environment. Each component plays a crucial role in empowering industries to meet the challenges of modern automation and maintain competitive advantages in their respective markets.