Vertical conveyor engineering and manufacturing since 2004
Vertical conveyor engineering and manufacturing since 2004
Start from the load, process and site constraint when a standard vertical conveyor cannot satisfy the required orientation, environment, routing or integration sequence.
Custom does not mean adding decoration to a catalogue model. It means the operating constraint changes the transfer architecture, carrier, materials, interfaces or control sequence.
Long panels, unstable shapes, special racks, protrusions or a centre of gravity that standard carriers cannot support.
The product must turn, index, rotate or enter and leave at different directions as part of the vertical route.
Oil-free, stainless, washdown, dusty, heated or restricted-space conditions change materials and component choices.
Several in and out points, intermediate storage, bridge transfer, building constraints or process-dependent destinations.
Heating, cooling, inspection, buffering, sorting or another operation must occur within the material movement sequence.
Conveyors, robots, AGVs, packing lines and manual stations need one agreed mechanical and control hand-off.
These examples show different engineering triggers. They are references for discussion, not fixed products or performance promises.
A documented Japan project used a 5 m indexed storage route for wood panels around a heating oven. The buffer function and process timing defined the machine.
Turn the transfer direction where plant layout prevents a straight in and out route.
Material and lubrication constraints changed the chain selection for non-woven packaging production.
Several transfer points require destination logic, route priority and a mechanical layout designed around the actual floors and lines.
A custom project should become more specific at every stage. Assumptions are converted into drawings, interface ownership and an operating sequence that both teams can review.
Define the load, process objective, route, abnormal conditions and what success means at the production line.
Agree who supplies conveyors, guarding, civil work, power, PLC signals, AGV hand-off and upstream or downstream equipment.
Select carrier, motion pattern, materials, in and out geometry, buffers and the normal operating sequence.
Test access, maintenance, jam recovery, blocked destinations, product variation and operator interaction before drawings are released.
Confirm fabrication, assembly, controls, documentation and the agreed acceptance checks prior to delivery.
Good custom engineering does not hide uncertainty. It exposes the data still needed, fixes scope boundaries and gives both sides a reviewable basis before manufacture.
Carrier geometry, transfer direction, landings, materials, in and out interfaces, buffering and control sequence.
Load drawings, weight and centre of gravity, throughput pattern, floor layout, environmental requirements and connected equipment.
Scope boundaries, customer-supplied items, civil and electrical responsibilities, signal lists and acceptance conditions.
Capacity, compliance, final safety design and site fit must be confirmed from project information and local requirements.
Incomplete data is acceptable at the first contact. Mark what is confirmed, estimated or still open so the next review targets the real unknowns.
Drawings, photographs, dimensions, weight range, centre of gravity and how the load is supported.
What moves, why it moves, where it must wait and any heating, cooling, cleaning, inspection or orientation step.
Floor plan, elevations, openings, columns, access, environment and the desired in and out directions.
Average and peak demand, cycle timing, operating hours, accumulation and future expansion.
Connected conveyors, robots, AGVs, production equipment, PLC signals and data ownership.
Required standards, documentation, tests, customer witness points and site responsibilities.
A custom system should reduce uncertainty at every stage. These deliverables keep the customer, integrator and manufacturer aligned before fabrication begins.
List load, process and site assumptions that still require customer confirmation.
Show mechanical, electrical and control boundaries at every hand-off.
Define samples, cycle tests, fault states and acceptance records before FAT.
Track how revised products, routes or interfaces affect the approved concept.
The answer becomes project-specific as soon as load and route data are available.
A project is custom when the load, route, environment, process step or integration sequence changes the carrier, movement pattern, interfaces, materials or controls beyond a standard arrangement.
Yes. Mark assumptions clearly and provide the available load and layout information. The first objective is to identify missing decisions and create a reviewable transfer concept.
It can be considered when capacity, indexed positions, product stability, access and the surrounding process sequence are defined together.
Turning, indexing or different in and out directions can be engineered when the product support, clearances and transfer method are confirmed.
Material selection and component choices follow the stated environment, cleaning method, temperature, contamination limits and applicable site requirements.
Provide the best available load data, route drawing, performance target, connected equipment, environment and scope boundaries. Open items can then be recorded for clarification.
