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Structural Engineer

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Onsite

Structural Engineer

EILBECK CRANES

Structural Engineer

Skills

Testing & QAChange ManagementCompliance

2 months ago

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Important information


Contract type:

Permanent

Salary:

A$110,000 – A$150,000 / year

Location:

Sydney NSW, Australia

Work mode:

Onsite

Published on:

1 September 2026

What they need


OPEN FOR SPONSORSHIP FOR THE RIGHT CANDIDATE! CALLING STRUCTURAL ENGINEERINGS WITH EXPERIENCE IN CRANES!!!!

ABOUT THE COMPANY

Eilbeck Cranes is a crane manufacturing & servicing company which provides overhead crane and hoisting products and services throughout Australia. We have been running for 118 years now, with 19 offices / facilities across Australia.

  • Australian owned family business and Australia's leading overhead crane and hoist manufacturing company

  • Growing & Fast Paced Organization

  • Challenging and Rewarding Role

ABOUT THE ROLE

Eilbeck Cranes is seeking a fulltime Structural Engineer to lead our design operations in Moorlands, Ingleburn. You will own the end-to-end engineering process—from initial quotes to final compliance.

Duties but not limited to -

·         Design Leadership: Execute structural calculations for cranes, portals, and heavy structures (quotation through post-award).

·         Operational Excellence: Replace external contractors by building in-house design capacity and improving manufacturing cost-efficiency.

·         Compliance & QA: Ensure 100% adherence to Eilbeck Quality Systems, IMS documentation, and WorkSafe/DMP requirements.

·         Verification: Validate third-party calculations and maintain rigorous change management

WHAT WE ARE LOOKING FOR - Minimum of 5 years experience on the below :

1. Technical Competency in Relevant Standards

Must know and actively work with the standards that govern crane and runway design in Australia and internationally:

Crane-Specific Standards

  • AS 1418 series — Cranes, Hoists & Winches
  • EN 13001 — General crane structural design
  • FEM 1.001 — Crane structural classification
  • CMAA 70/74 (USA) — Bridge cranes and gantry cranes
  • AS 2550 series — Safe use & operation (for integration)

Structural Standards (Australia)

  • AS 4100 — Steel structures

  • AS/NZS 1170 — Structural actions

    • Part 1: Dead/live
    • Part 2: Wind
    • Part 3: Crane loads / dynamic effects
  • AS/NZS 4600 — Cold-formed steel

  • AS 3990 — Mechanical equipment steels

  • AS/NZS 5100 — If runway integrated into a building/bridge structure

  • Welding standards:

    • AS/NZS 1554.1 — Structural welding
    • AS 1554.5 — Welding of cranes & lifting equipment components

2. Ability to Model Crane-Specific Loads

Must fully understand non-building load cases, which are unique to crane structures:

Dynamic & Fatigue Actions

  • Impact factors

  • Hoisting load amplification

  • Long travel/ cross travel acceleration loads

  • Skewing forces

  • Buffer impact loads

  • Fatigue regions in welded joints

  • Wheel loads under–

    • Maximum SWL
    • Unbalanced loading
    • Trolley eccentric loading
    • Side thrust (CT braking, skewing)

Runway Beam Loads

  • Vertical wheel loads (static + dynamic)
  • Horizontal loads (transverse & longitudinal)
  • Crane surge and braking forces
  • Lateral wheel loads per FEM or AS 1418
  • Fatigue from repetitive cycles
  • Rail bending + local bearing/stress checks
  • Connection design for runway brackets or cap channels

3. Competency Using the Right Software Tools

For crane structures, should be proficient in:

Structural Analysis

  • SpaceGass
  • Strand7
  • Robot Structural Analysis
  • RISA
  • SAP2000
  • ANSYS (if doing high-fidelity fatigue studies)

Design/Detailing

  • Tekla Structures
  • Advance Steel
  • SolidWorks (for trolley/hoist frames)
  • AutoCAD

Specialised Crane Tools (optional but valuable)

  • FEA for girder stability (lateral torsional buckling, distortional buckling)
  • Wheel load calculators (custom or FEM-based)

4. Crane Girders: Specific Competencies

Girder Design Requirements

  • Welded box girders, RHS, plate girders, or hot-rolled profiles

  • Lateral torsional buckling calculations

  • Distortion under trolley eccentric loading

  • Fatigue life calculation for welded joints

  • Bearing plate & end carriage connection design

  • Deflection control

    • Vertical (usually L/1000 to L/750 depending on standard)
    • Lateral (strict to prevent skewing)

Local Checks

  • Local web bending under wheel loads
  • Web crippling
  • Web buckling
  • Flange local bending
  • Stiffener design to address all above

5. Runway Beam & Support Structure Design

Runway Beam Requirements

  • Correct rail placement & clip design
  • Rail bending stresses
  • Clip weld design and fatigue
  • Beam bending + torsion
  • Lateral loads from crane skewing
  • Fatigue class assignment (FEM group 1–5)

Supporting Structure

  • Portal frames
  • Columns & brackets
  • Bracing systems
  • Vibrations & resonance checks
  • Anchor bolts & base plates
  • Runway-to-building interaction

6. Understanding of Fabrication & Inspection

Must know how their design will be built:

Welding

  • Selecting correct weld sizes, types & fatigue classes
  • Controlling distortion in welded plate girders
  • Heat input considerations
  • NDT requirements (UT, MT)

Fabrication Tolerances

  • Girder camber
  • Rail alignment tolerances
  • Wheel-to-rail geometry
  • End carriage alignment

Inspection & QA

  • WPS/PQR compliance
  • Visual inspection rules
  • Test certificates
  • Material traceability (plate, bolts, weld consumables)

7. Certification & Professional Requirements (Australia)

·         CPEng or RPEQ highly preferred, often required for signing off

·         Registration with Engineers Australia

·         Ability to issue:

o    Structural design reports

o    FEA verification

o    Form 15 / Form 16 (QLD)

o    Compliance statements to AS 1418 & AS 4100

8. Industry Experience

Must have practical familiarity with:

  • How cranes actually operate in the field
  • Common failure modes (rail wear, flange cracking, misalignment, skewing)
  • Fatigue failures in crane girders
  • Realistic dynamic factors beyond textbook assumptions
  • Erection/installation practices
  • Maintenance issues (cracks, wheel wear, runway alignment)

***An engineer without industrial crane experience will miss many of the load cases and fatigue issues that are essential.

9. Documentation Requirements

·         Complete structural calculations

·         Clear sketches for fabrication

·         FEA model output (if used)

·         Load diagrams (wheel loads, reactions, lateral loads)

·         Crane data sheet (speeds, masses, classes)

·         Deflection analysis

·         Fatigue justification

·         Welding details and notes

ADDITIONAL INFORMATION

·         Fulltime permanent position

·         Based in Moorlands, Ingleburn but potential to change contingent to business need

·         Start time 8am

·         Immediate start

#PH220526

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