Lifting and Rigging Plan: 8 Steps Before the Lift

HSE explains that lifting operations must be properly planned, supervised, and carried out safely, because a suspended load can turn one routine maintenance task into a fatal exposure in seconds. This guide shows how an EHS manager or supervisor can build a lifting and rigging plan that controls the lift before the crane, hoist, or forklift ever moves.

Why a lifting and rigging plan fails before the lift starts

A lifting and rigging plan fails when it treats the lift as an equipment choice instead of a controlled work sequence. A useful plan names the load, weight, center of gravity, lifting points, rigging hardware, travel path, exclusion zone, weather limits, communication method, and stop authority before work starts, because each missing detail creates a different failure mode.

OSHA publishes crane and derrick requirements in 29 CFR 1926 Subpart CC for construction work, including operator qualification, signal person duties, inspections, ground conditions, and specific lift restrictions. Even outside construction, those categories are useful prompts for industrial sites that need a practical pre-lift discipline.

As Andreza Araújo argues in Safety Culture: From Theory to Practice, culture appears in repeated decisions under production pressure. In lifting and rigging, that pressure appears when the team skips the load sketch, accepts a damaged sling because the spare is 20 minutes away, or opens the area to traffic before the load is stable.

Step 1: Define the lift and reject vague work names

A lifting and rigging plan starts with one defined lift, one load, one route, and one acceptance criterion. The planner should write the exact item being lifted, its estimated and verified weight, the lifting device, the rigging configuration, the landing point, and the expected duration, because a phrase like "move the pump" hides too many technical decisions.

The first trap is treating a repeated lift as automatically low risk. A 700 kg motor moved every shutdown may still change when the floor is wet, the access panel is removed, the vendor brings a different lifting lug, or the team works at night with a temporary supervisor.

Use a lift summary that a competent person can challenge in 60 seconds. The summary should answer what is being lifted, how much it weighs, where the center of gravity sits, where it will travel, who controls the lift, and when the lift must stop.

Step 2: Verify load weight, center of gravity, and lifting points

The load data should be verified before rigging hardware is selected. Manufacturer plates, drawings, purchase records, calibrated scales, and engineering estimates are stronger than field guesses, and the plan should state the source used for the weight because every sling angle and working load limit depends on that number.

Across 25+ years leading EHS at multinationals, Andreza Araújo has observed that teams often overtrust familiar equipment and underquestion changed loads. The same pump, gearbox, or skid can become a different lift after modification, trapped fluid, added guards, or partial disassembly.

Ask the mechanic, operator, and supervisor to confirm hidden weight before final approval. Water, residue, product, batteries, refractory, or attached piping can change the calculation, and the plan should require a second review when the verified weight differs from the expected weight by more than 10%.

10% variance between expected and verified load weight is enough to trigger a planning review on many industrial sites, because the difference can invalidate sling selection, crane radius, and landing assumptions.

Step 3: How will the lift zone stay controlled?

The lift zone stays controlled when only essential personnel can enter the drop zone, travel path, and landing area. The plan should mark barriers, spotter positions, pedestrian routes, forklift crossings, overhead exposure, and line-of-fire points before the pre-lift talk begins.

A suspended load changes the meaning of routine traffic. If the travel path crosses a warehouse aisle, the plan must connect with the workplace traffic plan, because a clear lift path on paper can still fail when pedestrians, forklifts, and contractors share the same floor.

The supervisor should walk the route with the rigging lead and signal person. During that walk, they should remove loose materials, confirm floor capacity, identify pinch points, check lighting, and decide where the load will pause if the move is interrupted.

Step 4: Select rigging gear from capacity and geometry

Rigging gear should be selected from the verified load, sling angle, hitch type, connection point, edge exposure, and environmental conditions. A sling that is acceptable in a vertical hitch may be unacceptable when the angle changes, because tension increases as the sling angle decreases.

The practical problem is rarely that nobody owns a capacity chart. The problem is that the chart is separated from the field decision, which is why the plan should require the rigging lead to record sling type, working load limit, angle assumption, hardware rating, and inspection status in the same document.

Do not rely on color, memory, or habit. The plan should require legible tags, compatible shackles, protected edges, correct hook orientation, and removal of damaged gear before use. If the gear cannot be verified, the lift waits.

Step 5: Who has authority to stop the lift?

Stop authority belongs to every person who can see a condition that invalidates the plan. The lifting and rigging plan should name the lift director or supervisor, crane or hoist operator, signal person, riggers, spotters, and the person who can pause production if exclusion zones or load data change.

In more than 250 cultural-transformation projects supported by Andreza Araújo's team, a recurring pattern appears: workers will speak up when the process makes stopping normal, but they become silent when every delay is treated as a lack of commitment. A lift plan should make the stop rule explicit before the load is attached.

Connect this rule to the site's stop work authority. The signal person should not have to negotiate with production while the load is suspended, and the operator should know that a lost signal, unexpected swing, new person in the zone, weather change, or unknown weight ends the lift until the plan is reviewed.

Step 6: Confirm energy, access, and adjacent work

A lift is not isolated from the rest of the job. The plan should verify stored energy, electrical hazards, line breaks, open edges, simultaneous hot work, chemical exposure, and adjacent maintenance before the load moves, because rigging can disturb systems that were never part of the lifting sketch.

ISO 45001:2018 specifies that organizations must identify hazards, assess OH&S risks, and apply operational controls. For lifting and rigging, that means the plan should not stop at the crane radius; it must include the work around the lift.

When the lift involves a machine, valve, or skid connected to utilities, link the plan with LOTO verification and any line break permit. The rigger may control the suspended load, but the maintenance supervisor controls the energy that can move, spray, fall, or release during removal.

3 controls must align before complex removal work starts: the lift plan, the isolation proof, and the work permit. If one is missing, the team has a paperwork stack rather than a controlled job.

Step 7: Run a pre-lift briefing with field evidence

The pre-lift briefing should verify the plan against field reality, not repeat a generic toolbox talk. The team should stand where the lift will happen, review the load path, test communication, confirm roles, check barriers, inspect rigging, and identify the first point at which the load could swing, rotate, snag, or strike.

ILO states that occupational safety and health depends on prevention systems, worker participation, and practical control of hazards. That principle matters here because rigging safety depends on the people closest to the work seeing what the planner missed.

The briefing should produce one visible decision. If the team identifies an obstruction, bad weather, damaged tag, unclear signal, or missing spotter, the plan changes before execution. A briefing that cannot change the job is only a ritual.

Step 8: What should be checked during and after the lift?

The lift should be checked at three moments: before tension is applied, after the load is lifted a few centimeters, and after the landing is complete. These pauses confirm rigging balance, load stability, communication quality, exclusion-zone discipline, landing support, and whether any new hazard appeared during movement.

The first pause is the most valuable. Lifting a few centimeters reveals unexpected center of gravity, binding, rotation, loose parts, or sling movement while the consequences are still controllable.

After landing, the supervisor should capture lessons in the plan. If the job will repeat, record the final rigging configuration, problems found, pictures of the setup, actual duration, and any change needed before the next lift. The same learning logic appears in a good Take 5 safety check, where the value is the field observation before the next exposure.

Each repeated lift without a reviewed plan teaches the crew that memory is the control, while the organization loses the chance to convert field learning into a safer standard.

Comparison: checklist-only lift vs engineered lift plan

An engineered lifting and rigging plan changes the quality of the decision before the load moves. The difference is visible in who verifies the information, what evidence is recorded, and whether the plan can stop the job when reality changes.

During the PepsiCo South America tenure, where the accident ratio fell 50% in six months, Andreza Araújo learned that prevention improves when plans become field management tools. Lifting and rigging follows the same principle, because the form matters only when it changes who verifies, who stops, and who learns.

Conclusion: make the lift plan control the work

A lifting and rigging plan becomes credible when it controls load data, rigging geometry, exclusion zones, energy, communication, stop authority, and post-lift learning before the load moves.

If your organization wants to move from signed checklists to controlled high-risk work, Andreza Araújo's books Safety Culture: From Theory to Practice and Make The Difference: Be a Leader in Health & Safety, together with ACS Global Ventures consulting, offer a practical route from diagnosis to field execution. Start the conversation with Andreza Araújo.