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Steel erection method statement template and planning checklist

A steel erection method statement must describe a safe, engineered sequence for this particular frame—not a generic list of “lift, bolt and repeat” steps. It should connect the frame designer's assumptions, temporary stability at every stage, lifting plan, ground and crane conditions, safe access, fall prevention, exclusion zones, inspection hold points, emergency arrangements and changes to the work. The steelwork contractor and competent specialists must develop and approve the real method before erection. This blank template is a planning structure only. It does not design a temporary state, authorise a crane lift or allow anyone onto the frame.

HSE's steel erection guidance identifies falls, dropped materials, moving steel, unintended collapse, manual handling and plant overturning as key hazards. For collapse prevention it calls for a sequential method developed with the frame designer and/or structural engineer, with bracing, guys or stays designed so the structure remains stable throughout erection. The British Constructional Steelwork Association's steel construction guidance similarly treats safe access, lifting and the stability of the part-erected frame as central planning objectives. Use those sources and project documents to complete this form; do not replace engineering decisions with generic prose.

When to use the form

Use it when a competent steelwork contractor is preparing a site-specific erection method and needs a consistent place to record the approved design sequence and execution controls. It may support a wider RAMS and construction-phase plan. A subcontractor should coordinate with the principal contractor and designers; the client and principal contractor should supply relevant site and design information. The method must be reviewed when the frame design, connections, lifting plant, ground, access, sequence, weather, adjacent work or temporary works change.

For a simple small frame, the form can be concise, but the stability and lifting decisions still need competent design. A complex or unusual frame, bridge or heavily constrained urban site may require detailed drawings, calculations, lift plans, temporary-works design and specialist independent review beyond this worksheet. Do not call a completed Word document “approved” until the people with authority for each design and operational element have signed the correct revision.

A. Project identity and document control

FieldEnter for this project
Project, address, building/zone and work package[ ]
Client, principal contractor, steelwork contractor[Names and contact roles]
Frame designer, connection designer and temporary-works designer[Names/organisations; exact design responsibility]
Erection planner, supervisor and competent reviewer[ ]
Method statement reference, revision, date and status[Draft / reviewed / issued for construction; never use uncontrolled copy]
Applicable drawings, model, calculations, specifications and revision[ ]
Risk assessment and lifting-plan references[ ]
Scope and limits[What frame/level/bay is included, exclusions and interfaces]
Programme and shift boundaries[Start/end, handovers, overnight stability arrangements]
Distribution and briefing record[Who received this revision, when, acknowledgement]

List design assumptions that the erection method relies on: completed foundations, anchor-bolt acceptance, ground-bearing capacity, availability of bracing, connection type and strength at each stage, permissible temporary loads, crane positions and access. Assign someone to verify each assumption before the affected stage. A mismatch is a stop-and-escalate condition, not a site improvisation.

B. Pre-erection information and site handover

The steelwork contractor should obtain and assess the relevant pre-construction and design information. Record the condition of foundations, bolts and bearing surfaces; crane and MEWP ground conditions; buried and overhead services; public and other-trade interfaces; delivery routes; load-out and lay-down areas; wind exposure; adjacent structures; and any design-imposed erection order. The HSE guidance emphasises planning access, plant, competence, emergency arrangements and sequence with designers before work begins.

Pre-start questionEvidence / responsible personStatus and action
Are foundation and anchor details accepted for the planned temporary and final loads?[ ][ ]
Are erection drawings and connection details the current issued revisions?[ ][ ]
Does the frame designer identify any member, bay or brace that must precede another?[ ][ ]
Is the partial frame stable at each stage, including out of hours?[ ][ ]
Are crane standing and travel areas assessed by a competent person?[ ][ ]
Are utility and public interfaces controlled?[ ][ ]
Are access, fall prevention, rescue and exclusion zones designed for this method?[ ][ ]
Is the lifting equipment and rigging appropriate to actual component weight/geometry?[ ][ ]

Any “unknown” affecting stability, lifting or work at height should block release of the relevant stage until resolved. Do not turn a blank row into a presumed pass.

C. Engineered erection sequence — repeat for each stage

The sequence below is a format, not an instruction to erect any particular steel frame. The frame designer/engineer and erector must populate it from calculations and drawings. HSE specifically warns that a part-erected structure can collapse before it is fully braced.

Stage and bay/levelMembers placed and connection stateTemporary stability measure and design referenceLifting/plant plan referenceAccess and fall controlExclusion and interface controlHold point/release signature
0. Set out, foundation/anchor verification[ ][ ][ ][ ][ ][ ]
1. Initial stable unit[Engineer-defined][ ][ ][ ][ ][ ]
2. Progressive bays and bracing[Engineer-defined][ ][ ][ ][ ][ ]
3. Floors/decking or secondary steel[Engineer-defined][ ][ ][ ][ ][ ]
4. Final connections and temporary-work removal[Engineer-defined][ ][ ][ ][ ][ ]
5. Inspection and handover[ ][ ][ ][ ][ ][ ]

For each stage state the condition that permits the next one: required bolts or welds completed, bracing installed, survey/alignment accepted, designed ties or guys in place, plant and access safe, and competent inspection recorded. Specify who may authorise removal of temporary works. If an element is omitted, moved or substituted, stop and seek design review. “Equivalent brace available” is not an engineering decision.

D. Lifting and moving members

Steel members and decking packs can strike people or destabilise plant. Use a separate competent lift plan for each category of lift, linking it here. Record member ID, weight and centre of gravity, rigging/attachment, crane selection and capacity at the actual radius, travel path, ground and outrigger support, communications, slinger/signaller roles, weather limits determined for the lift, exclusion zone and no-lift conditions. If the load or radius changes, recheck the plan. HSE's construction lifting guidance requires careful planning, competent people, supervision and a recorded safe system of work; the method statement can be part of that record.

Do not invent a universal wind threshold, sling angle, crane capacity or exclusion distance for this template. The competent lifting team must set them from the equipment, load, manufacturer, design and site conditions. Ensure other trades and the public are kept out of the lifting and drop zones. Do not plan to lift over occupied work areas.

E. Safe access, falls and dropped objects

Plan the work to avoid work at height where practicable. HSE gives the example of installing edge protection at ground level before lifting a member. Where work at height remains, specify suitable platforms or MEWPs, how crews reach connections and how collective fall protection is installed. Nets or personal fall arrest may mitigate a fall but require a rescue plan; they do not make an unsafe access method acceptable. Record how tool and material drops are prevented and how others are excluded from below. HSE's steel erection page warns against walking on the top flange of beams and describes limited specialist circumstances for beam-straddling; a general template should not present that as a routine technique.

Access/control itemProject choice and design evidenceVerification before stage
Ground-level assembly to reduce exposure[ ][ ]
MEWP/platform/scaffold location and suitability[ ][ ]
Edge protection and decking sequence[ ][ ]
Fall mitigation and rescue arrangements[ ][ ]
Tools/material retention and drop zone[ ][ ]
Other trades and public boundaries[ ][ ]

F. People, competence and coordination

Name the erection supervisor, frame/temporary-works engineer, lifting planner, crane operator, slinger/signaller, MEWP users, welders and inspectors as relevant. Record the specific task and equipment competence that has been checked, plus who can make a design decision. A qualification card alone does not authorise alteration of the erection sequence. Include induction, briefing in a language workers understand, daily review of drawings and changes, and a route for workers to stop and report an unsafe condition.

Coordinate with the principal contractor about deliveries, other trades, temporary stability overnight, access handovers and emergency services. The method should say who controls the zone and who releases it for the next trade. A shared site needs clear boundaries; a neat method statement is ineffective if a team below is allowed into the lift area.

G. Inspection, stop rules and emergency response

Record the hold-point checks at foundation acceptance, initial stable unit, bracing, lifting, access installation, final connections and removal of temporary works. The person signing each point must have the necessary authority and evidence. Record defects and corrective actions, and show the revised drawing or calculation when a design point changes.

Stop and refer back if a support or anchor differs from the design, the frame moves unexpectedly, a brace or connection cannot be installed as planned, lifting conditions change, the crane ground deteriorates, a different component arrives, the weather affects safe operations, a MEWP cannot reach the designed position, a person enters the exclusion zone, or work proceeds outside the issued drawing revision. The competent designer/erection planner decides the revised method; site pressure is not a substitute.

The emergency plan should cover fall rescue, trapped or suspended load, structural instability, crane/MEWP incident, fire and access for responders. Name responders and equipment; confirm the plan can work at the actual frame level and that crew can summon help. A line saying “call 999” is not a fall-rescue arrangement.

Complys and this template

Complys risk assessment software is a relevant commercial destination for organising a risk assessment workflow if its present functions are confirmed in implementation. A generic RAMS tool cannot calculate the erection sequence, certify a partially braced frame, approve a lift or replace the frame designer's judgement. The steelwork contractor should build the method from its drawings and specialist plans, review it with the principal contractor and brief the crew. Record management software may help keep the approved revision and evidence accessible, but only verified features should be described as live.

The live steelwork sector page is a separate commercial owner. This template answers the copyable steel erection planning form intent and should not duplicate a product feature inventory. The existing general method-statement template remains broad; the steel erection page's sequence/stability and engineering hold points justify a specialist form, subject to final repository review.

Sources, claim register and writer-side QA

CheckFinding and remaining gate
Primary/specialist sourcesHSE steel erection; HSE construction lifting operations; British Constructional Steelwork Association sector guidance. Checked 5 October 2026. Project-specific designs and current specialist standards govern real erection.
Claim registerDesigner-linked sequential method, partial-frame stability, lift/access/fall and plant risks directly follow HSE; blank table is explicitly not an engineered sequence. No universal wind/lift dimensions invented.
JurisdictionGreat Britain construction safety context. Site design and contracts may impose more specific controls.
Owner/cannibalisationNo live exact template owner found; steelwork sector page owns product, generic method template owns cross-trade form. Distinct specialist planning intent, subject to final repo/unpublished check.
Product truthNo structural calculation, auto approval, certified method, lift-plan or designer function attributed to Complys. Verify any record feature against implementation.
Internal linksHSE and BCSA primary/specialist sources; exact .co.uk risk-assessment money page; live steelwork sector owner.
Copy/metadata QADirect answer, extensive blank planning/sequence form, hold points, stop rules and explicit competent-engineer signoff. Writer-side READY as a template draft, not a usable erection authorisation; specialist, product, repository and independent whole-page gates remain.

Terminal writer-side disposition: READY.

Complys helps you keep this organised and current. See Risk Assessment Software; confirm current capabilities for your use before relying on any specific feature.