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Method Statement: Engineering Review and Approval Workflows for Complex Critical Lift Plans (>30 t or >80% Crane Capacity) – Method Statement
Method Statement: Engineering Review and Approval Workflows for Complex Critical Lift Plans (>30 t or >80% Crane Capacity) method statement and inspection test plan example.

Method Statement: Engineering Review and Approval Workflows for Complex Critical Lift Plans (>30 t or >80% Crane Capacity) – Method Statement

AI-assisted method statement with matching ITP, PDF download, and Excel export.

Published 27 May 2026 Rev. 00 61 views 6 downloads
About this method statement: This method statement details the full engineering review and approval workflow for complex critical lifts. It covers PE-stamped rigging design, dynamic load audits, site readiness, and formal permit-to-lift sign-offs with clear hold and witness points.

More than a static template

Unlike a downloadable Word or PDF template, this method statement is an AI-assisted editable starting point connected directly to a matching Inspection and Test Plan. Every section is structured, project-adaptable, and ready to export.

  • AI-assisted drafting — Customize every section with AI for your specific project scope.
  • Linked ITP — A matching inspection and test plan is generated alongside the method statement.
  • Multiple export formats — Download as a formatted PDF or editable Excel spreadsheet.
  • Editable starting point, not a final document — Review, verify, and adjust all content against your project requirements before use.

Static template vs. Quollnet workflow

FeatureStatic templateQuollnet
Project-specific contentManual fill-in requiredAI-assisted customization
Linked ITPSeparate document, no linkMatching ITP included
Export formatsUsually PDF onlyPDF and Excel
Structured sectionsFree-form layout13 standardized sections
Saved to your accountLocal file onlyCloud-saved, reusable
Content accuracyYou verify everythingAI-assisted, you still verify
CostOften free but time-intensiveFree to customize and download

What you can customize

When you save this method statement to your account, every section becomes editable. The following 13 sections are included:

  • Scope — Defines the activity and its boundaries.
  • References — Standards, specifications, and drawings.
  • Responsibilities — Roles and accountabilities.
  • Resources — Labour, plant, and equipment summary.
  • Materials — Materials and compliance requirements.
  • Equipment — Tools and equipment details.
  • Prerequisites — Hold points and pre-conditions.
  • Method sequence — Step-by-step construction sequence.
  • Safety controls — HSE risk controls and PPE.
  • Environmental controls — Environmental mitigation measures.
  • QA/QC — Quality inspection and test requirements.
  • ITP — Inspection and Test Plan table (has its own page).
  • Attachments — Referenced drawings and documentation.

Why this method statement is used

This method statement is used to define and communicate the approved procedure for carrying out method statement: engineering review and approval workflows for complex critical lift plans (>30 t or >80% crane capacity) on site. It ensures the work is planned in advance, the correct resources and controls are in place, and all personnel understand responsibilities, sequence, quality requirements, and safety controls before work begins. It aligns site execution with the documented scope and acceptance expectations.

Who uses this method statement

This method statement is used by contractors, site supervisors, project engineers, QA/QC engineers, HSE officers, consultants, and client representatives. It serves as a shared reference for planning, execution, supervision, inspection, and approval of the activity on site.

When it is prepared and submitted

The method statement is prepared before the work activity starts and submitted as part of the pre-construction documentation package for review and approval.

Who reviews or approves it

The method statement is usually submitted to the client representative, consultant, resident engineer, or project management consultant for review and approval before the work commences.

Important approval note

This method statement is an AI-assisted editable starting point, not a pre-approved document. Before use on any project, all content must be reviewed and approved by the relevant parties (superintendent, principal contractor, or client representative) in accordance with your contract and project quality plan.

For example: if your specification requires a departure from a referenced standard, that departure must be documented and approved separately — this method statement will not capture that automatically. Always verify against your applicable drawings, specifications, and regulatory requirements.

Method statement content

Scope

Purpose

Define the engineering review, verification, approval, and permit-to-lift workflow for Complex Critical Lifts where lifted load exceeds 30 tons or the crane configuration operates at >80% of rated capacity, including engineered rigging design checks by a Professional Engineer (PE), dynamic loading calculation audits, and formal pre-lift permit sign-offs.

Inclusions

  • Lift classification, data capture, and engineering inputs (CoG, rigging geometry, wind/sail area, travel path, lift zones).
  • Rigging design and independent PE check; dynamic and environmental load allowances.
  • Ground bearing assessment for crane set-up and matting design/verification.
  • Configuration verification against OEM load charts and duty cycles.
  • HAZID/constructability review; communication planning; emergency and exclusion zone planning.
  • Pre-lift meeting, mock/test-lift, Go/No-Go criteria, and permit-to-lift sign-offs.
  • Documentation control and records.

Exclusions

  • Routine lifts (<30 tons and <80% capacity) unless otherwise classified by risk matrix.
  • Detailed crane operation execution methodology (covered by separate method statement for lifting operations).

References

Document TypeReference / NumberRevisionNotes
ASME P30.1 Planning and risk-based classification of lifts.
ASME B30.5 / B30.9 / B30.10 / B30.26 Crane operations and rigging components requirements.
BS 7121-1 Lift planning roles and responsibilities, AP and sign-offs.
BS EN 13000 Mobile crane safety and rated capacity limiter functions.
ISO 12480-1 General safe use principles and supervision.
ISO 9927 Inspection regimes and records.
EN 13155 Design/verification of lifting beams, spreaders, and attachments.
OSHA 1926.1400 US regulatory requirements if applicable.
All values marked [Verify per project specifications].

Responsibilities

RoleResponsibilityName / Party
Client/Engineer Approval authority Client
Project Manager Management Contractor
AP/Lift Planner Preparation Contractor
PE (Structural/Mechanical) Technical authority Contractor/Consultant
HSE Manager HSE oversight Contractor
Crane Supplier Rep OEM compliance Supplier
Rigger Supervisor Execution readiness Contractor
Document Controller Document control Contractor

Resources

Resource TypeDescriptionQuantityRemarks
Software Structural/ring lift calculators, FEM or spreadsheet tools; CAD for rigging sketches. Sufficient
Documentation Load drawings, CoG statements, lifting point certificates, sling/shackle certificates. Complete set
Personnel AP/Lift Planner, PE (sign/seal), HSE Manager, Rigger Supervisor, Signalers, Crane Operator. As required
Instruments Anemometer, load cell/dynamometer, total station or laser for radius verification, calibrated torque wrench. 1 set/rig

Materials

MaterialSpecification / GradeQuantityRemarks
Rigging certificates ASME B30.9/B30.26, EN 13155 Complete certificates Physical hardware inspected pre-lift; planning relies on documents
Crane docs ISO 9927, local law [Verify] Up-to-date

Equipment

EquipmentCapacity / TypeQuantityInspection Required
Crane As selected 1+
Spreader Beam >= Required WLL As required
Load Cell >110% of max expected line load [Verify] 1 set
Anemometer 1
Two-way Radios Sufficient

Prerequisites

  • Confirm lift classification as Complex Critical (load >30 t or crane >80% rated capacity) per ASME P30.1/BS 7121-1 and project matrix.
  • Obtain latest OEM load charts for exact crane configuration (boom length, jib, counterweight, outriggers/track).
  • Obtain verified data for: load weight (+/- tolerance), center of gravity (CoG), dimensions, pick/set radii, lift path, sail area, lifting points and attachment capacities.
  • Ground investigation and bearing capacity report for crane location; design/verify mats/spreaders as needed with target FoS 2.0–3.0 against bearing failure [Verify per project specifications].
  • Identify overhead/underground utilities; implement isolation/permit with authority where required.
  • Define environmental thresholds: maximum wind at hook height (typical 9–12 m/s for general lifts; lower for high sail areas) [Verify per project specifications].
  • Confirm competency and certification of all personnel (AP, PE, operator, riggers, signalers) and equipment calibration certificates (LMI, load cells, anemometers) within valid dates.
  • Prepare draft Lift Plan Dossier: risk assessment/HAZID, rigging drawings, calculation sheets, exclusion zones, traffic plan, communication plan, emergency rescue plan.
  • Schedule HAZID/constructability review and pre-lift meeting with stakeholders (Contractor, Client/Engineer, Crane Supplier, HSE, PE).

Method Sequence

StepActivityDescriptionResponsibilityInspection / Hold Point
1 Lift Classification & Initiation Classify the lift per ASME P30.1/BS 7121-1 using criteria: load >30 t or crane utilization >80%, unusual geometry, proximity to live plant, tandem lifts, or restricted radii. AP/Lift Planner Review
2 Data Capture & Verification Capture verified weight, CoG, lifting point WLL, sling angles, radii, obstacles, wind exposure; check documents traceability. AP / PE Witness
3 Preliminary Rigging Design Size slings/shackles/spreader beams; compute line loads with angle factors; apply DAF and environmental allowances. PE (Design) Review
4 Dynamic Loading Audit Apply dynamic amplification factor (typ. 1.1–1.3 for mobile crane starts/stops) and wind load on projected area; check hoist speeds and shock load controls. Independent PE (Checker) Hold Point
5 Crane Selection & Utilization Check Select crane and configuration; verify capacity at each radius and boom angle with charts; LMI/RCL settings defined. AP / Crane Supplier Rep Witness
6 Ground Bearing & Mat Design Assess outrigger/tracks reactions; design mats/spreaders accordingly with FoS 2.0–3.0. PE (Geotech/Structural) Hold Point
7 HAZID & Constructability Review Workshop reviewing proximity hazards, utilities, exclusion zones, traffic, communication, rescue plan. HSE Manager (Chair) / AP Witness
8 Lift Plan Dossier Compilation Compile stamped calculations, rigging drawings, load charts, certificates, method statement extract, risk assessment, ITP, and checklists. AP / Document Controller Review
9 Client/Engineer Approval Submit dossier for review; incorporate comments; obtain formal approval. Contractor PM / AP Hold Point
10 Pre-Lift Meeting (Toolbox) Brief all participants: sequence, signals, exclusion zones, weather limits, Go/No-Go, emergency plan. AP / HSE Manager Witness
11 Site Readiness Verification Confirm crane set-up, mats installed, exclusion/barriers, utilities isolated, signage, weather within limits. AP / HSE / Client Rep Hold Point
12 Mock/Test Lift Hoist load 100–200 mm to verify balance, line loads, communication; adjust rigging if required. AP / Rigger Supervisor / Operator Witness
13 Permit-to-Lift Sign-off Issue permit based on successful test-lift and site readiness; define validity period and conditions. HSE Manager / Client Rep / AP Hold Point
14 Post-Lift Review & Closeout Capture lessons learned; archive records; update risk register. AP / HSE / QA-QC Review

Safety Controls

Task-specific hazards and controls

  • Hazard: Crane overload/instability leading to tip-over
  • Likely consequence: Catastrophic equipment failure, fatalities, major property damage
  • Engineering/procedural control: PE-verified calculations including DAF (typ. 1.1–1.3 [Verify]); utilization target ≤90% preferred; ground bearing check with FoS 2.0–3.0; LMI/RCL functional test; exclusion zone 1.5× maximum radius or as risk assessed [Verify]
  • Required PPE: Hard hat, hi-vis, safety boots; exclusion-zone marshals with distinctive vests
  • Collective preventive measure: Rigid barriers and spotters; designated crane pad with mats; wind monitoring at hook height
  • Inspection/permit/supervision: Pre-lift site readiness checklist; permit-to-lift; AP and HSE witness; daily crane pre-use inspection (ISO 9927)

  • Hazard: Rigging failure (sling/shackle/spreader)

  • Likely consequence: Dropped load, severe injury/fatality
  • Engineering/procedural control: Use certified components with WLL ≥ factored line loads; consider angle factors and D/d per ASME B30.9; EN 13155 for spreaders; remove components with defects; torque pins to spec
  • Required PPE: Gloves, eye protection during rigging; steel-toe boots
  • Collective preventive measure: Test-lift 100–200 mm; load cell monitoring; exclusion zone
  • Inspection/permit/supervision: Pre-use rigging inspection by competent rigger; certificates verified within 12 months [Verify]; PE sign-off on rigging design

  • Hazard: Load swing/wind effects

  • Likely consequence: Loss of control, collision, line overload
  • Engineering/procedural control: Set wind limits (typ. 9–12 m/s; lower for high sail area) [Verify]; taglines used where safe; smooth hoist controls; suspend lift if gusts exceed limit
  • Required PPE: Gloves, helmets with chin strap where wind risk
  • Collective preventive measure: Weather station/anemometer; staged hoisting speeds
  • Inspection/permit/supervision: Real-time wind logging; AP Go/No-Go authorization each shift

  • Hazard: Collision with structures or plant

  • Likely consequence: Structural damage, process upset, injury
  • Engineering/procedural control: Define lift path and swept envelope; spotters; proximity alarms; barricade encroachments
  • Required PPE: Standard site PPE; radios for spotters
  • Collective preventive measure: Physical barriers; banksman positions marked on ground
  • Inspection/permit/supervision: Pre-lift route walkdown; SIMOPS permit if near live plant [Verify per project HSE plan and local regulations]

  • Hazard: Powerline/energized equipment contact

  • Likely consequence: Electrocution, arc flash, fire
  • Engineering/procedural control: Maintain statutory clearances; de-energize or install physical barriers; dedicated spotter
  • Required PPE: Dielectric gloves only as per electrical work scope; otherwise standard PPE and exclusion
  • Collective preventive measure: Hard barricades; signage showing safe clearance
  • Inspection/permit/supervision: Electrical permit/LOTO; utility owner approval; AP/HSE verification

  • Hazard: Ground failure/underground services collapse

  • Likely consequence: Crane settlement, overturning, utility rupture
  • Engineering/procedural control: Subsurface survey (GPR/records); mat design; exclusion over tunnels/culverts unless engineered
  • Required PPE: Standard site PPE
  • Collective preventive measure: Mark no-go areas; use spreader mats per design
  • Inspection/permit/supervision: Ground bearing calc hold point; permit to break ground if excavation required

  • Hazard: Communication failure

  • Likely consequence: Conflicting commands, shock loading
  • Engineering/procedural control: Radio checks; single signaler protocol; hand signals per standard; backup radios
  • Required PPE: Radio headsets where noise; high-vis for signalers
  • Collective preventive measure: Dedicated channel with repeater if needed
  • Inspection/permit/supervision: Communication plan; AP to supervise pre-lift checks

  • Hazard: Personnel in pinch/crush zones during test lift

  • Likely consequence: Serious injury
  • Engineering/procedural control: Enforce exclusion around load; taglines; no body under suspended load
  • Required PPE: Standard site PPE + cut-resistant gloves for tagline handlers
  • Collective preventive measure: Barriers and banksman
  • Inspection/permit/supervision: HSE observation; stop-work authority briefed to all

[All controls to be confirmed and adapted to project HSE plan and local regulations.]

Environmental Controls

  • Potential hydraulic oil/fuel spills from crane
  • Control: Drip trays under parked plant; spill kits at crane; operators trained in spill response
  • PPE: Nitrile gloves, goggles during cleanup
  • Collective measure: Secondary containment at refueling point; designated refueling area
  • Inspection/permit/supervision: Environmental permit if required; daily plant leak checks; spill log

  • Ground protection and soil compaction from crane mats

  • Control: Use engineered mats to spread loads; avoid sensitive zones; reinstate ground post-lift
  • PPE: Standard site PPE
  • Collective measure: Define mat laydown and access routes
  • Inspection/permit/supervision: Environmental inspection prior/after works; photographic records

  • Noise during setup and test-lift

  • Control: Limit hours; maintain equipment; use communication headsets to avoid shouting
  • PPE: Hearing protection where >85 dB(A)
  • Collective measure: Notify stakeholders; barriers where necessary
  • Inspection/permit/supervision: Noise monitoring as required [Verify]

  • Waste and damaged rigging disposal

  • Control: Segregate and tag-out failed items; dispose via licensed waste stream
  • PPE: Gloves, eye protection
  • Collective measure: Locked scrap bins
  • Inspection/permit/supervision: Waste transfer notes; asset register update

  • Dust/mud from crane access routes

  • Control: Road sweeping; wheel wash where needed
  • PPE: Eye protection if dusty
  • Collective measure: Speed limits; dampening
  • Inspection/permit/supervision: Routine environmental patrols

QA/QC

Quality objectives

  • Ensure all engineering calculations are checked and signed by a PE; where required, stamped per jurisdiction.
  • Ensure compliance with ASME/BS/EN standards and OEM charts.

Key acceptance criteria [Verify per project specifications]

  • Calculations incorporate DAF (typ. 1.1–1.3), wind loads (project-defined), angle factors, and rigging efficiency; resultant line loads ≤ WLL of slings/shackles/attachments with required factors of safety.
  • Crane utilization: Target ≤90%; absolute ≤95% only with Client approval and additional controls.
  • Ground bearing pressure ≤ allowable with FoS 2.0–3.0; mats installed per design.
  • Wind speed at hook height ≤ limit specified in plan; measured and recorded.
  • LMI/RCL and anti-two-block functional checks passed; radios function verified.
  • Test-lift completed with measured line loads within ±10% of calculated values or within project-defined tolerance [Verify].

Document control

  • All documents carry unique numbers, revision index, author/checker/approver signatures, and distribution matrix.
  • Only controlled copies used at site; superseded documents retrieved.

Records and retention

  • Lift Plan Dossier, signed calculations/drawings, certificates, ITP, permits, checklists, weather logs, test-lift records, meeting minutes retained per contract (typ. min. project duration + 10 years) [Verify].

Nonconformance and corrective action

  • Deviations from plan trigger stop-work, NCR issuance, root cause analysis, and re-approval of revised documents prior to resumption.

Attachments

  • Sample Critical Lift Plan Template (index, data sheets, drawings)
  • Rigging Calculation Sheet (with angle factor and DAF fields)
  • Crane Utilization Worksheet (per radius/boom length)
  • Ground Bearing & Mat Design Template
  • HAZID/Constructability Workshop Agenda and Action Log
  • Pre-Lift Readiness Checklist
  • Test-Lift Record and Load Log Sheet
  • Communication Plan & Hand Signals Guide
  • Emergency Response Plan (rescue of suspended load; area evacuation)
  • Permit-to-Lift Form (with validity conditions and Go/No-Go criteria)

This content is a read-only public reference. Download or customize to get an editable version.

ITP preview

The first inspection activities from the linked ITP for Method Statement: Engineering Review and Approval Workflows for Complex Critical Lift Plans (>30 t or >80% Crane Capacity):

ActivityInspection / TestAcceptance CriteriaResponsibilityRecord
Lift classification and risk matrix confirmationReview against ASME P30.1/BS 7121-1Classified as Complex Critical with documented justificationAP / HSEClassification Form
Load/CoG data verificationDocument traceability checkManufacturer statement/drawings; CoG tolerance within plan limitsAP / PEData Register & Certificates
Rigging design calculations – independent PE checkPeer review and signature/stampAll factored loads ≤ component WLL; drawings issued for use (IFU)Independent PE (Checker)Signed/Stamped Calcs & Drawings

Showing 3 of 10 inspection activities. View full ITP →

Related Inspection and Test Plan

An Inspection and Test Plan (ITP) is available for Method Statement: Engineering Review and Approval Workflows for Complex Critical Lift Plans (>30 t or >80% Crane Capacity). The ITP defines the inspection activities, acceptance criteria, hold and witness points, responsible parties, and records required to verify the work described in this method statement.

View the Method Statement: Engineering Review and Approval Workflows for Complex Critical Lift Plans (>30 t or >80% Crane Capacity) ITP →

Frequently asked questions

Any lift over 30 tons or where the crane will operate above 80% of its rated capacity, or as otherwise classified by risk per ASME P30.1/BS 7121-1 and project matrix.

Yes, for Complex Critical Lifts a PE shall perform and independently check rigging calculations, stamping as required by the jurisdiction and contract.

Typical thresholds are 9–12 m/s at hook height, reduced for high sail area loads. Exact limits must be verified per project specifications and OEM recommendations.

Yes. A controlled mock/test-lift of 100–200 mm is required with load monitoring to verify calculated line loads and stability before permit issuance.

Target ≤90% utilization. Up to 95% may be accepted only with Client approval and additional controls. Exact limits must be verified per project requirements.

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