Glass Racking System
A glass racking system matters most when the empty return leg costs more than the rack itself.
For glass fabricators, stone shops, solar panel lines, and door-and-window plants, the rack is not just a storage tool. It sits in the middle of the workflow: short transfer, temporary staging, export loading, and then the empty return trip. When a project crosses borders, the pain usually starts after delivery, because a welded A-frame still occupies the same cube on the backhaul and burns cash in reverse logistics.
Mgrack was built for that exact problem. It is a double-sided A-frame glass racking system with a knock-down structure, so the base, triangular frames, top beam, and wheel set can separate for dense nesting. That changes the economics of export supply chains: the rack still carries, rolls, and lifts like industrial equipment when loaded, but it stops behaving like a single empty steel block on the return leg.
Why welded racks become expensive the moment the load is delivered
In old export routes, the real cost is not the outbound trip. It is the empty leg. A fixed welded A-frame cannot collapse, so the consignee has to send back a full-size frame that steals container volume and truck capacity. The result is simple: freight keeps charging for air. For long sea routes and cross-border transfers, that reverse-logistics bill can exceed the value of the rack itself.

Why Mgrack fits export glass, stone, and panel programs
The fit comes from the structure. Mgrack uses a Q235A carbon steel build, bolt-connected modules, and a double-sided A-frame geometry that keeps board-shaped goods upright and stable. Common series builds use a base plus triangular supports, top and middle beams, rubber contact strips, and optional caster, fork, and lifting interfaces. Depending on the project, the rack can be specified with 5, 6, or 8 inch casters, 164×92 mm fork pockets, and anti-tip legs that keep the frame stable when parked.
Because the rack is modular, the empty set can be broken down and nested much tighter than a welded unit. That is the key commercial win: the same 40HQ container that would carry only a few full-size empty frames can carry a far denser bundle of KD components. In optimized project packing, the return leg can be reduced from a steel-volume problem to a compact parts pack.
What the photos prove on the shop floor
The workshop image shows flat-stacked powder-coated frames prepared for KD shipping. That is the first proof point: the system is designed to travel as parts, not as a fixed block. The second photo shows disassembled steel beams stacked for export packing, which is exactly what reverse logistics needs. If the frame can break down, stack, and ship as a high-density parts package, the customer is no longer paying to haul dead air across the ocean.

What buyers should confirm before ordering
- Ask for the knock-down map: base, triangular frame, and beam set should separate cleanly, not stay welded as one body.
- Match the handling chain to your plant: if you need fork, crane, and rolling moves, keep fork pockets, lifting lugs, and casters in the spec.
- Size the rack to the load and nesting target: common Mgrack builds run from about 1000 kg to 3000 kg class projects, with export packing tailored to the exact footprint.
- Specify contact protection and finish: rubber pads and powder coating help reduce edge damage, while galvanized or galvanized-plus-powder options can improve voyage durability.
