Industries/Renewable Energy
Hub-height · Wind-window-bound — sealed deliverables

The highest pick
on the windiest site.

A wind-turbine erection is one of the tallest, most wind-sensitive lifts in the industry — a nacelle hoisted past 100 metres onto a tower, in the one location guaranteed to be windy. Miss the weather window and the crane sits idle at thousands a day; misjudge the lift and a multi-million-dollar nacelle is on the ground. We engineer that lift — hub-height geometry, wind-limit-bound, sealed before mobilization. Wind, hydro, solar, storage. The developer runs the plant ; we get the heavy thing up.

ASME B30.5

Mobile crane standard, methodology-grade

Z150

Quebec lift-plan code applied to every engagement

24 h

Emergency lift plans — renewable sites Canada-wide

0

Hub-height lifts without a sealed plan in hand

01 · What's at risk

Six exposures at hub height.

Renewable lifts carry an exposure profile most industrial lifts don't : extreme height, a site chosen for its wind, and components worth millions with long lead times. The exposures below are what the sealed lift plan exists to control. Every Maxor deliverable in this vertical addresses them explicitly.

01

Wind window collapse

A nacelle lift has a hard wind-speed ceiling — exceed it and the pick is unsafe. On a site chosen for its wind, the window is narrow and expensive. The contingency matrix documents the wind limit + the fallback, so the crew doesn't improvise at the ceiling.

02

Component write-off

A nacelle, a blade, a generator is a multi-million-dollar, long-lead component. A dropped or wind-caught lift isn't a delay — it's a re-order that slips the whole project. The lift plan controls the pick the component can't survive failing.

03

Crane catastrophic failure

Hub-height lifts run the largest crawler + tower cranes near their charts. Tip-over or boom collapse at that scale is a fatality-class event. Capacity utilization documented per pick ; the lift respects the chart at full radius + height.

04

Remote-site access + ground bearing

Renewable sites are remote, often on soft or sloped ground. Crane walk-paths, pad preparation, and outrigger reactions are engineered against the as-built terrain — geotechnical input client-supplied, we consume it.

05

Grid-connection deadline

A PPA or interconnection milestone drives the schedule — miss it and the revenue date slips with penalties. The lift campaign is engineered against the fixed commissioning window, not the other way around.

06

BESS thermal + safety event

Battery-storage container placements sit next to a thermal-event hazard. Keep-out zones, water-source access, and vent alignment are mapped in the lift plan before the container lands.

02 · Operations served

Six lift archetypes. Wind to storage.

Renewable lifts cluster into recurring engineering patterns across wind, hydro, solar, and storage. Each archetype has its own load-case profile and height / wind constraint. The methodology adapts ; the rigor doesn't.

Wind erection

Nacelle, hub, blade + tower erection

Tower-section stacking, nacelle hoist to hub height, hub + single-blade or bunny-ear blade installs. Wind-limit-bound geometry, the signature renewable lift. CRANEbee 3D for the swing + clearance.

Wind service

Major-component replacement

Gearbox, generator, blade, and main-bearing swaps on operating turbines — up-tower or full lower-and-replace. Crane re-mobilization to a live wind farm, sequenced around the operating fleet.

Hydro

Turbine + generator + gate lifts

Turbine runners, generator rotors + stators, draft-tube + gate equipment in the powerhouse. Precision set on the unit centreline ; tandem-crane for the heaviest rotors. Confined-powerhouse access.

Solar

Inverter + transformer installs

Central + string inverters, pad-mount transformers, MV switchgear skids across a utility-scale solar field. Repeat-pick efficiency engineered for the install campaign.

Storage

BESS container + skid placements

Battery containers, PCS skids, transformer skids. Thermal-event-aware site layout respected — keep-out zones + access + vent alignment documented before the container lands.

Grid-tie

Substation + collector equipment

Collector-substation transformers, switchgear, and breakers tying the generation to the grid. Lifts beside energized equipment ; energized-clearance documented.

On the ground

Renewable Energy in the field

From sector context to the lifts we engineer — a look at where this work happens.

Wind turbine farm — renewable energy
Wind turbine farm — renewable energy
Solar panel farm
Solar panel farm
Offshore wind turbines
Offshore wind turbines
Hydroelectric dam
Hydroelectric dam
Crawler crane — heavy lift
Crawler crane — heavy lift
Tower crane on skyline
Tower crane on skyline
03 · Standards we reference

The standards we work to.

The lift is our scope, so the standards we cite are crane + rigging standards. The turbine design, the interconnection study, the power-systems engineering belong to the developer + OEM — we engineer getting their equipment up and into place.

ASME B30.5

Mobile and locomotive cranes

The mobile crane safety standard — load charts, capacity, setup, operation. Cited on every renewable-energy lift plan as the methodology baseline, at full radius and hub height.

CSA Z150

Mobile crane safety + Quebec lift-plan code

The Canadian mobile crane standard ; in Quebec, Norme Z150 is the provincial lift-plan code — Quebec is a wind + hydro powerhouse. Cited on every engagement in its jurisdiction.

ASME B30.9

Slings

Governs sling selection, rating, and inspection — wire-rope, chain, synthetic. Cited on the rigging spec of every lift, each leg sized against the load + safety factor, including blade-handling rigs.

ASME B30.26

Rigging hardware

Governs shackles, links, rings, and connecting hardware. Cited on the rigging assembly — every component rated to the load it carries.

CSA Z150.3

Crane operator qualification

The qualification + certification standard for mobile crane operators. Referenced in the operator-brief section so the right ticket runs a hub-height pick.

Load charts

Manufacturer load charts

The crane's published capacity at radius, boom length, and configuration. Every capacity-utilization figure in our plans traces back to the manufacturer chart — critical at extreme height.

04 · Capabilities applied

Four capability lines. One renewable-energy engagement.

Maxor's four service pillars all show up on a renewable-energy lift. Here's how each one earns its place — wind to storage.

01
Lift planning

Sealed plans + emergency response

Hub-height erection + component-swap lifts, single-crane to multi-crane tandem, wind-limit-bound contingency matrix. Same-day emergency tier when a component failure threatens a grid-connection deadline. Capacity utilization per pick ; Z150 / B30.5 cited inline.

02
CRANEbee®

Distribution + training + implementation

Nacelle hoists, blade installs, and confined-powerhouse lifts modeled in CRANEbee before the crane sets up. Swing arc + clearance drawn against actual site geometry, at full height. We distribute, train, and implement the platform on Canadian renewable projects.

03
Murlink®

Distribution + advisory + training

Dyneema® synthetic chains for blade + component handling — non-marking on finished composite surfaces, lighter for the crew on a remote pad, non-conductive near collector + substation gear. Authorized Quebec distribution.

04
Software

Deterministic engineering platform

The Maxor software line (Heisen, Maxor Audit, Maxor Ground) provides the audit-grade evidence substrate behind the sealed lift plans — recallable lift records, erection-campaign provenance, sovereign deployment.

05 · Custom solutions

Beyond the four pillars — software built for your operation.

The four service pillars cover the lift. But most renewable developers carry a software gap the off-the-shelf vendors never close. We build it — custom applications, integrations, and managed services, same engineering posture, same team from kickoff to go-live, sovereign by default. Engineered in Canada, owned by you.

Heisen — our deterministic intelligence layer — is optional on any build: embed it or not, your call. Either way it plugs into a fresh custom app or your existing third-party software via API.

Discuss a custom build
01

Erection-campaign + weather-window planning

Sequences turbine erections across the wind farm against crane availability, crew, and forecast wind windows — so the lifts land in the weather they need and the project hits its commissioning date.

02

Asset registry + O&M lifecycle dashboard

A registry of every turbine, inverter, and BESS asset tied to install date, warranty, and service history — so the next major-component swap is a planned campaign, not a reactive scramble.

03

Generation + grid-compliance reporting

Reconciles generation data and produces the grid + regulatory compliance reporting the interconnection agreement requires — deterministic, audit-trailed, sovereign.

[Engage]

Scope your renewable-energy lift.

Tell us the technology, the site, and the commissioning window. A senior lead responds within one business day with a scoped lift engagement and a path to first deliverable.