Fully Automated Glass Cutting Line & Electric Compact Storage Rack – Integrated System for Glass Manufacturing, Handling, and Warehousing
The core high-cost intermediate component "shuttle car (main cart + auxiliary cart)" in traditional equipment is eliminated. Adopting a streamlined design of "motor unit directly drivingglass rack + movable loading machine", it directly reduces the overall equipment procurement cost and lowers the initial investment threshold for customers. Meanwhile, the simplified structure reduces complex transmission links, ensuring more stable equipment operation. No additional maintenance costs for shuttle car-related complex components are required in the later stage, significantly improving the cost-effectiveness during long-term use.
Traditional equipment requires the shuttle car to carry the heavy load of "entire pack of glass + glass rack" for long-distance transportation. Repeated heavy-load operation is prone to causing factory floor settlement, requiring annual regular adjustment of guide rail height to ensure equipment alignment accuracy. Moreover, it has high requirements for the initial floor hardening strength, increasing infrastructure costs. Our equipment adopts the mode of "short-distance movement of glass rack + light-load movement of loading machine". Each time, only a single glass rack needs to be driven to the target position over a short distance, and the loading machine only carries a single piece of glass during movement. The overall load is greatly reduced, which not only minimizes the risk of floor settlement but also lowers the infrastructure requirement for factory floor hardening, saving pre-construction infrastructure costs and later-stage floor maintenance costs.
Traditional shuttle cars feature an integrated complex structure. When core components (such as drive motors and cylinders) fail, professional personnel are required for disassembly and maintenance, resulting in a long maintenance cycle and high costs. Moreover, the entire warehousing system cannot operate normally during the failure period, seriously affecting the production schedule. Our equipment adopts a "single rack independent motor drive" mode, where each glass rack corresponds to an independent drive unit. Failures are confined to a single rack and will not spread to the entire system. Additionally, motor maintenance has a low technical threshold and is easy to operate. During the failure period, the glass in the faulty rack can be temporarily hoisted to other normal racks to ensure the continuous operation of the production line, significantly reducing downtime losses.
Traditional shuttle cars are wider in body and require reserving a larger operating range during movement, which forces glass racks to avoid further distances to both sides, leading to a relatively large overall footprint of the warehousing system. Our equipment eliminates the wide-body shuttle car design. Under the same storage capacity, the overall floor space is significantly reduced with higher space utilization rate, making it more convenient for site planning and design in the early stage of factory construction.
The loading position and storage position of traditional equipment are far apart. Glass needs to go through multiple transfer links via "shuttle car transportation", and the entire pack of glass must follow through the full journey. This easily increases the risk of glass damage due to long-distance movement and mechanical impact. After optimizing the layout, the loading position of our equipment is adjacent to the storage position. Glass only needs to move a short distance from the storage position to the corresponding loading position without intermediate transfer links. The overall movement path is significantly shortened, greatly reducing mechanical impact and friction, which prominently lowers the probability of glass breakage and improves the yield rate.
Traditional shuttle car-type equipment requires the shuttle car to accurately park at the designated storage position before glass loading, which has relatively high requirements for the positioning precision of the equipment and increases the operational difficulty of the loading process. Our equipment adopts the mechanical logic of "short-distance movement of glass rack + active alignment of loading machine". After the glass rack is driven to the preset area by an independent motor, the movable loading machine takes the initiative to approach and triggers the loading action through physical contact between the front-end signal rod and the glass. No strict preset positioning precision is required, which significantly lowers the precision dependence threshold for the loading operation.
Traditional equipment relies on the complex transmission structure of the shuttle car, with multiple action links that are prone to failures. Our equipment eliminates the main cart design and adopts a simplified independent motor + chain drive structure. The action logic is concise, which greatly reduces the failure probability. Daily maintenance is simple and convenient, minimizing equipment downtime for maintenance.