A mobile boat hoist engineered to lift yachts, superyachts and workboats from the water, transport them through the boatyard and position them safely for maintenance, storage or launching.
U-shaped marine travel crane using multiple adjustable slings to lift and transport a large yacht in a boatyard.
Henan Mine Crane marine travel cranes combine a U-shaped gantry structure, synchronized hoisting system, adjustable hull slings, rubber-tired travel system and multi-wheel steering in one project-engineered boat-handling machine. The open-end structure allows vessels with high superstructures to enter the crane envelope before lifting.
This equipment should be selected from the actual vessel fleet and boatyard layout—not from nominal capacity alone. Maximum operating displacement, beam, overall height, hull geometry, approved sling zones, underwater appendages, lifting-well dimensions, travel route, pavement capacity, turning space and annual haul-out volume all affect the final configuration. Values that have not been confirmed for a specific project are therefore identified as project-specific rather than assumed.
| Product Family | Marine Travel Crane / Marine Travel Lift / Mobile Boat Hoist |
| Primary Function | Vessel haul-out, launching, boatyard transport, maintenance positioning and dry-storage handling |
| Rated Capacity | Configured from the maximum verified vessel operating displacement and lifting arrangement |
| Clear Width / Inside Beam | Configured around maximum vessel beam, fenders, sling geometry and operating clearance |
| Lifting Height / Under-Clearance | Configured around lifting-well level, vessel draft, keel clearance, transport supports and yard obstructions |
| Sling Arrangement | Multiple adjustable lifting points configured from vessel-approved sling zones and load distribution |
| Travel / Steering | Rubber-tired travel; steering geometry selected from the actual boatyard route and turning areas |
| Wheel / Pavement Load | Project-specific; final wheel reactions must be checked against pier and yard structures |
| Control Mode | Project-specific according to visibility, operating procedures and required positioning control |
| Power / Drive System | Project-specific according to duty, travel distance, site utilities and emissions requirements |
| Marine Environment | Coating, enclosure and component protection selected for salt, humidity, rain, wind and local temperature |
Request A Marine Travel Crane Quote
A marine travel crane is a specialized rubber-tired gantry used to lift a vessel with flexible slings and transport it on land. The crane straddles the lifting well or slip area, lowers the slings beneath the hull, raises the vessel clear of the water and then travels to a wash-down, repair, painting, inspection or storage position.
The open-end U-shaped frame is important for yachts and workboats with masts, wheelhouses, antennas or other high superstructures. Adjustable hoisting points allow the sling positions to be matched to the approved hull support zones, while distributed wheel groups reduce individual wheel reactions and support controlled movement across the yard.
Before quotation, buyers should provide both a vessel fleet schedule and a scaled boatyard layout. Henan Mine Crane can then review capacity, crane envelope, sling arrangement, lifting-well interface, wheel loading, steering, braking, marine protection and operating cycle as one integrated handling system.
The crane can lift the vessel from the water, move it to a service or storage area and position it above a prepared cradle, reducing intermediate transfers between separate lifting and transport equipment.
The U-shaped structure allows a vessel with tall superstructure to enter the crane envelope through the open end before lifting, subject to the verified crane and route clearances.
Multiple hoisting points and slings can be arranged for different hull lengths and approved support zones. Each vessel type still requires a verified lifting plan.
Rubber-tired travel and a project-matched steering system allow the machine to serve wash-down, repair, storage and launching areas without a fixed rail runway.
Coating system, fasteners, electrical enclosures and exposed components can be specified for the site's salt, moisture, temperature, rain and wind conditions.
The current Henan Mine Crane product page contains one dedicated Marine Travel Crane image. It is used above as the main product image and is not repeated here, avoiding duplicate media while keeping the page directly matched to the product.
| U-Shaped Gantry Structure | Configured around rated load, vessel beam, superstructure access, lifting height, travel stability and marine operating conditions. |
| Hoisting Winch System | Multiple hoisting units raise and lower the vessel through the specified sling arrangement and load-balancing strategy. |
| Adjustable Hoist Blocks | Positioned to match the approved longitudinal sling zones of different vessel types within the confirmed operating envelope. |
| Hull Slings / Support System | Selected for vessel weight, hull form, sling angle, contact pressure, approved support zones and underwater appendage clearance. |
| Rubber-Tired Wheel Groups | Configured for loaded travel, ground-bearing limits, route gradients, yard surface and required maneuverability. |
| Steering System | Project-specific steering geometry selected from minimum route width, turning zones, parking layout and alignment requirements. |
| Braking / Parking System | Specified for maximum loaded mass, travel speed, route gradient, stopping distance, wind and safe parking conditions. |
| Hydraulic / Drive System | Power architecture and drive arrangement are selected from operating cycle, travel distance, site utilities and environmental requirements. |
| Control / Monitoring System | Configured for operator visibility, hoist coordination, travel, steering, warnings, fault monitoring and required positioning accuracy. |
| Product | Marine Travel Crane |
| Alternative Search Names | Marine Travel Lift, Mobile Boat Hoist, Yacht Lifting Crane, Boat Gantry Crane |
| Rated Capacity | Project-specific |
| Clear Inside Width | Project-specific |
| Lifting Height / Under-Clearance | Project-specific |
| Overall Length / Width / Height | Project-specific |
| Number / Position of Slings | Project-specific according to the approved vessel lifting plan |
| Hoisting Speed | Project-specific |
| Loaded / Unloaded Travel Speed | Project-specific |
| Turning Radius / Steering Geometry | Project-specific |
| Allowable Route Grade / Cross-Fall | Project-specific |
| Maximum Wheel / Axle Load | Project-specific |
| Control Mode | Project-specific |
| Power / Drive | Project-specific |
| Corrosion / Ingress Protection | Project-specific for the actual marine environment |
| Applicable Design Standard | Confirmed in the final technical agreement for the destination market |
Confirmed product scope:
Buyer-defined items:
| Marinas / Yacht Clubs | Lift yachts for seasonal storage, hull cleaning, antifouling, survey, repair and relaunching. |
| Superyacht Service Yards | Move high-tonnage yachts between the lifting well, wash-down area, enclosed service halls and outdoor hardstands. |
| Boatbuilding Facilities | Transfer newly built vessels between assembly, painting, outfitting, testing and launching positions. |
| Commercial Shipyards | Handle workboats, fishing vessels, tugs, patrol craft and other vessels within the engineered capacity and hull envelope. |
| Naval / Government Facilities | Support controlled haul-out, maintenance and storage workflows for approved vessel classes. |
| Dry-Storage Operations | Position vessels on prepared cradles or supports while improving access to multiple yard storage zones. |
Use the vessel's verified lifting condition, including fuel, water, stores, onboard equipment and any temporary items that remain during haul-out. State whether future larger vessels must also be covered.
Length overall, maximum beam, draft, keel depth, air draft and superstructure width determine clear width, lifting height and route clearance.
Obtain the vessel designer's or owner's lifting plan. Sling positions must avoid propellers, shafts, stabilizers, sonar, transducers, through-hull fittings and hull areas not approved for lifting.
Provide pier width, opening width, deck level, fender position, water depth and minimum / maximum operating water levels. These values affect sling lowering distance and vertical clearance.
Show the lifting well, wash-down station, service bays, storage positions, corners, gates, slopes, obstructions and parking area on one scaled drawing.
Final wheel reactions must be checked against the lifting-well piers, quay structure, drains, utility trenches and every yard surface used under load.
Annual haul-outs, peak daily cycles, loaded travel distance, future vessel size and storage strategy determine duty, speed, wheel groups, power system and lifecycle value.
| Operating Displacement | Maximum verified vessel weight in the actual haul-out condition, not lightship weight alone. |
| Principal Dimensions | Length overall, beam, draft, keel depth, air draft and maximum superstructure width. |
| Center of Gravity | Longitudinal and transverse center-of-gravity information for the specified lifting condition. |
| Approved Sling Plan | Permitted sling locations, spacing, reaction limits, contact widths and any prohibited hull zones. |
| Hull Form / Material | Monohull, catamaran or other form; steel, aluminum, composite, timber or another hull material. |
| Underwater Appendages | Propellers, shafts, rudders, stabilizers, fins, sonar, transducers and through-hull fittings. |
| Fleet Schedule | Data for the largest, heaviest, widest, deepest and most frequently handled vessel—not only one representative boat. |
| Sling Position | Use vessel-approved lifting zones and mark reference positions for repeatable haul-outs. |
| Sling Reaction | Verify load distribution and allowable hull reaction at every support point. |
| Contact Pressure | Select sling width, padding and contact arrangement for the hull material and permitted bearing pressure. |
| Sling Angle / Stability | Review hull form, sling geometry, center of gravity and any need for restraints or separation control. |
| Appendage Clearance | Keep slings clear of shafts, propellers, rudders, stabilizers, transducers and other vulnerable equipment. |
| Inspection / Replacement | Define sling inspection, cleaning, storage, rejection and replacement requirements before operation. |
| Lifting-Well Interface | Provide pier spacing, deck elevation, opening width, structural limits, fenders and safe wheel paths. |
| Minimum Route Width | Measure the narrowest gate, lane, service-bay entrance and storage aisle with the vessel suspended. |
| Turning / Alignment Areas | Show corners, intersections, reversing zones and required alignment over cradles or service positions. |
| Surface Capacity | Verify lifting-well piers, quay, pavement, slabs and hardstands against final wheel reactions. |
| Surface Condition | Identify joints, drains, trenches, rails, transitions, potholes and loose surfaces that affect travel stability. |
| Slopes / Cross-Fall | Provide longitudinal gradients and transverse slopes for all loaded routes and parking positions. |
| Traffic Separation | Plan controlled interfaces with pedestrians, service vehicles, forklifts, cranes and customer access. |
Before manufacture, freeze the design vessel data, fleet schedule, sling plans, lifting-well drawing, route layout, ground conditions, storage interfaces, environmental data, applicable standards and acceptance criteria. The lifting well and every loaded travel route must be ready for the final crane wheel reactions.
Commissioning should verify hoist synchronization, sling handling, load monitoring, travel, steering, braking, parking, warnings and emergency functions. Site testing should follow the agreed procedure and use an approved test arrangement before routine vessel handling begins.
Maintenance planning should cover the structure, winches, ropes, sheaves, hoist blocks, slings, hydraulic system, brakes, tires, wheel groups, steering components, controls, corrosion protection and safety devices. Salt deposits should be removed according to the maintenance plan, damaged coating repaired promptly and critical spare parts identified before commissioning.
| 1 | Maximum vessel operating displacement and future design capacity |
| 2 | Vessel fleet table with length, beam, draft, keel and superstructure height |
| 3 | General arrangement drawings and center-of-gravity data |
| 4 | Approved sling positions, reactions and restricted hull areas |
| 5 | Underwater appendage and through-hull fitting locations |
| 6 | Lifting-well / pier drawing with water levels and structural capacity |
| 7 | Complete boatyard route, gates, service bays, turning areas and parking position |
| 8 | Pier, quay, slab and pavement bearing information |
| 9 | Route slopes, cross-fall, drains, trenches and surface-condition details |
| 10 | Annual haul-outs, peak daily lifts and loaded travel distance |
| 11 | Required control, steering, positioning and operator arrangement |
| 12 | Available power supply and preferred energy concept, if specified |
| 13 | Salt exposure, humidity, wind, rain and ambient-temperature data |
| 14 | Destination country, required design standard and power frequency |
| 15 | Delivery, erection, testing, training and spare-parts scope |
Use the maximum vessel displacement in the actual haul-out condition, including fuel, water, stores and onboard equipment. Future vessels and any required design margin should be defined in the technical specification.
Yes, when every vessel falls within the confirmed weight and dimensional envelope and has an approved sling plan compatible with the crane's adjustable hoist positions. Provide a fleet table rather than only the largest boat.
Incorrect sling placement can overload the hull or damage propellers, shafts, stabilizers, sonar and fittings. Sling locations and allowable reactions should come from the vessel designer, owner or another authorized technical source.
The layout determines crane width, height, steering geometry, turning space, travel distance and storage access. It also identifies where wheel loads must be checked against piers, pavement and underground structures.
The protection system must be specified for the actual salt, humidity, rain and wind exposure. Buyers should confirm coating preparation, coating system, component protection, inspection access and maintenance requirements in the technical agreement.
Major cost drivers include capacity, clear width, lifting height, number and adjustment range of hoisting points, wheel groups, steering, route conditions, power system, marine protection, control functions and commissioning scope.
The agreed test procedure should cover hoisting, load balance, lowering, loaded and unloaded travel, steering, braking, parking, warnings, emergency functions and any required positioning or cycle-time criteria.
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Send the vessel fleet table, maximum operating displacement, general arrangement drawings, approved sling positions, lifting-well drawing, full boatyard route, wheel-load limits and annual handling cycle. Henan Mine Crane can then review the vessel, crane, pier and yard requirements together and prepare a project-specific technical proposal and quotation.