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Jump-Form / Slip-Form Concrete Construction SWMS

SWMS template for jump-form / slip-form concrete construction. Covers High-rise core construction methodology, climbing systems.. 8-state AU coverage, CIH-reviewed editable DOCX, available as an instant download.

βš–οΈWHS Regulation 2025 & Codes of Practice β€” legally binding from 1 July 2026 (s26A)
πŸ‘·Reviewed by certified occupational health and safety professionals
πŸ—ΊοΈState-specific variants for all 8 Australian jurisdictions
$149 AUDβœ“ Instant Download Available

SWMS variants reference your state’s WHS legislation. Instant download after payment.

Jump-form and slip-form concrete construction is the continuous or staged vertical pouring methodology used to construct high-rise cores, lift shafts, stair towers and silos. The system relies on hydraulically climbing or continuously moving formwork platforms suspended at significant heights, where workers place reinforcement, pour concrete, and operate jacking systems often above 30 metres. Under WHS Regulation 2011 r291, this work falls within multiple High Risk Construction Work categories simultaneously β€” work at height above two metres, work on or near structural alterations requiring temporary support, and work involving pressurised hydraulic plant. A Safe Work Method Statement is mandatory before this work commences, must be developed in consultation with workers performing the task, and must be readily available for inspection by the regulator. This SWMS template provides the structured hazard identification, hierarchy-of-control documentation, and sign-on framework required for compliant jump-form and slip-form operations across all eight Australian jurisdictions.

Hazards identified

7 hazards covered, sorted by priority.

Fall from climbing platform edge or through cast-in penetrations during form repositioningHIGH

Fatal multi-storey fall causing polytrauma; PCBU prosecution under WHS Act s32 reckless conduct category

Hydraulic jacking system failure or uncontrolled release of pressure during climb cycleHIGH

Sudden platform collapse, crush injuries, fluid injection injuries requiring emergency surgical intervention

Structural failure of anchor cones, climbing shoes or wall ties supporting form loadHIGH

Catastrophic platform detachment from core wall causing fatalities and uncontrolled concrete release

Wet concrete contact with skin and eyes during continuous slip-form pour operationsMEDIUM

Alkaline burns, dermatitis, corneal ulceration requiring medical treatment and notifiable incident reporting

Falling objects from upper deck onto lower work platforms or public exclusion zonesHIGH

Head and crush injuries to workers below; public liability exposure where exclusion zones inadequate

Crane lift interaction with climbing form during reinforcement, kibble or material deliveryHIGH

Load swing impact with platform, structural displacement, worker strike injuries or knock-off falls

Wind loading on exposed climbing form at elevated heights exceeding design envelopeMEDIUM

Form sway, anchor overload, worker disorientation and loss of balance at unprotected edges

Control measures

Hierarchy-of-controls order: elimination β†’ substitution β†’ isolation β†’ engineering β†’ administrative β†’ PPE.

  1. 1Elimination β€” Where feasible, substitute jump-form with precast core panels manufactured off-site to remove the climbing form hazard exposure entirely at height.
  2. 2Elimination β€” Eliminate manual form stripping at height by specifying self-climbing hydraulic systems with integrated platform decks and no external scaffold dependency.
  3. 3Substitution β€” Substitute open-edge timber working decks with engineered steel mesh platforms incorporating compliant guardrails per AS/NZS 4994.1 perimeter protection requirements.
  4. 4Substitution β€” Replace traditional snap-tie wall anchors with proprietary engineered climbing cones load-tested and certified by the form supplier's structural engineer.
  5. 5Engineering β€” Install certified hydraulic jacking systems with independent fail-safe locking pawls, pressure relief valves, and synchronised climb monitoring across all jacking points.
  6. 6Engineering β€” Provide fully decked upper, working and lower platforms with toe boards, kickplates and debris netting to capture dropped objects and tools.
  7. 7Administrative β€” Conduct daily pre-climb inspection by a competent rigger including anchor cone torque check, hydraulic pressure verification, and weather monitoring against design wind speed limits.
  8. 8Administrative β€” Restrict climbing operations to nominated competent crews, exclude all non-essential personnel, and establish ground-level exclusion zones with spotters during every climb cycle.
  9. 9PPE β€” Issue full-body harnesses with twin shock-absorbing lanyards anchored to certified platform attachment points compliant with AS/NZS 1891.1 fall arrest standards.
  10. 10PPE β€” Provide alkali-resistant gloves, sealed safety eyewear, hard hats with chinstraps, high-visibility clothing and steel-capped boots for all platform workers.

Applicable Codes of Practice

Model Code of Practice: Managing the Risk of Falls at Workplaces (Safe Work Australia)βš– Legally binding Β· 1 Jul 2026

Establishes the duty to eliminate fall risk above two metres and prescribes engineered platform requirements directly applicable to climbing form decks.

AS 3610.1:2018 Formwork for concrete β€” Specifications

Sets design, documentation and inspection requirements for formwork systems including climbing and slip-form, mandating engineer certification before each climb.

AS/NZS 1891.1:2020 Personal equipment for work at height β€” Manufacturing requirementsβš– Legally binding Β· 1 Jul 2026

Specifies harness, lanyard and anchor performance criteria triggered whenever fall arrest is the residual control on platform edges.

Model Code of Practice: Construction Work (Safe Work Australia)βš– Legally binding Β· 1 Jul 2026

Defines High Risk Construction Work categories, mandates SWMS preparation under r291 and prescribes consultation obligations for jump-form crews.

High-Risk Construction Work triggered

1
Work involving a risk of a person falling more than 2 metres

Climbing form platforms operate continuously at heights exceeding two metres and frequently above 30 metres on high-rise core construction.

4
Work involving structural alterations or repairs that require temporary support to prevent collapse

The climbing form itself constitutes temporary structural support transferring load into freshly cured concrete walls before full design strength.

14
Work carried out on or near pressurised gas or liquid systems (hydraulic systems)

Hydraulic jacking, pressure manifolds and synchronised ram circuits operate under high pressure throughout each climbing cycle.

Legal consequence

PCBUs must prepare the SWMS before work starts, consult affected workers, retain records for two years or until a notifiable incident, with penalties substantial and indexed; current maximum follows the prevailing WHS schedule.

Who this is for

  • β†’Principal contractors on Tier 1 high-rise commercial projects
  • β†’Specialist formwork subcontractors operating climbing systems
  • β†’Construction site safety managers overseeing core works
  • β†’Formwork engineers and supervisors certifying climb cycles

What you receive

  • βœ“Editable DOCX template β€” Microsoft Word compatible
  • βœ“State-specific WHS legislation schedule (NSW/VIC/QLD/SA/WA/TAS/NT/ACT)
  • βœ“Hazard register with risk ratings + hierarchy-of-control mapping
  • βœ“Worker sign-on register, pre-start checklist, and incident escalation flow

Worked example

On a 28-storey residential core project in a metropolitan CBD, the formwork supervisor uses this SWMS at the 6:30am pre-start brief on the morning of climb cycle 14. The crew of six gathers on the upper deck while the supervisor walks through each documented hazard against the actual conditions: forecast wind is 32 km/h gusting 45, which the SWMS hydraulic operating envelope caps at 40 km/h sustained. The team identifies that the planned 9:00am climb must shift to 11:00am once wind drops, and the supervisor annotates the SWMS daily review section accordingly. Hazard four β€” wet concrete contact β€” is reinforced because a new labourer is joining the pour team; the supervisor confirms his alkali-resistant gloves and sealed eyewear before sign-on. Each worker signs the SWMS register acknowledging the controls, with the new labourer countersigned by his trade supervisor. Mid-morning, the rigger conducting the pre-climb anchor cone torque check finds one cone reading below the 180 Nm threshold specified in the engineering control. He stops work, the supervisor consults the SWMS escalation pathway, the form engineer is called to site, and the cone is replaced before climb authorisation is granted. The SWMS amendment is logged, the crew is re-briefed on the revised sequence, and signatures are recaptured before the rescheduled climb proceeds safely at 12:15pm.

Related legislation

  • WHS Act 2011 (model)
  • WHS Regulation 2025
  • Managing the Risk of Falls at Workplaces CoP
What's in this SWMS

Document details

Regulation
WHS Regulation 2011 r291 β€” High Risk Construction Work; applicable state WHS Regulations and Codes of Practice.
HRCW Category
Heights, structural support, hydraulic systems
Hazards Identified
6 hazards with controls
Format
Editable DOCX (Microsoft Word)
Author
Certified Industrial Hygienist (CIH)
Delivery
Instant download after payment