Break down one cycle
Allocate electrical input power and time to each stage. Avoid counting simultaneous total supply power twice.
Bridge cranes for workshops and production lines.
Explore Overhead Cranes
Ground-supported lifting for yards and construction.
Explore Gantry Cranes
Wire rope and chain hoists for lifting points and cranes.
Explore Electric Hoists

Wire rope lifting and pulling with a powered drum.
Explore Electric Winches
Grab buckets, magnets and hooks for your load.
Explore Lifting Attachments & Grabs
Mobile handling for containers, precast and yard loads.
Explore Rubber-Tired Gantry Cranes & Straddle Carriers

Lift and move vessels through boatyards and marinas.
Explore Marine Travel Lifts
Ladle, slab, scrap and coil handling across steel production.

Container stacking and cargo transfers across terminals and rail.

Turbine installation, powerhouse maintenance and wind equipment assembly.

Controlled component transfer and positioning for precision assembly.

Heavy fabrication, production lifting and factory crane automation.

Process lifting for smelters, carbon blocks and anode materials.

Clean lifting and classified protection for sensitive process areas.

Bridge fabrication, metro construction and ship block assembly.

Automated storage and retrieval for plates, cables and bins.

Follow project dispatches, crane engineering and factory acceptance.

Dispatch, installation and equipment in service

Crane configurations and handling technology

Factory inspections, acceptance and test programmes

Company developments, people and community programmes
Build a transparent electricity-use estimate from measured or proposed crane operating stages and an entered USD tariff.
Allocate electrical input power and time to each stage. Avoid counting simultaneous total supply power twice.
Use representative cycles per operating day and the expected number of operating days.
Compare per-cycle, daily and annual energy. The USD result uses only the entered electricity tariff.
12 kW for 60 s hoisting, 5 kW for 40 s travel and 0.5 kW for 20 s other time; 100 cycles/day, 250 days/year and USD 0.12/kWh.
Each cycle uses about 0.2583 kWh. Annual use is about 6,458.33 kWh, costing USD 775 at the entered tariff.
Stage power must be electrical supply input if you want an electricity-use result.
The model scales a representative cycle linearly with the entered operating schedule.
Regeneration, demand charges, tax, maintenance and changing tariffs are not added automatically.
Using motor nameplate mechanical output as average electrical input, or treating peak power as the average for the entire stage.
E_cycle = Σ(P_electrical × t) / 3,600
E_year = E_cycle × cycles/day × days/year
Cost = E × entered USD/kWh
Include its electrical energy consistently within one of the entered stage totals. For more detailed cycles, sum the stage energies separately before comparing the total.
No. It is electricity energy multiplied by the entered USD/kWh tariff.