
Project overview of the Henan Mine Crane carbon block stacking system operating in a carbon-material baking workshop.
Carbon-material baking plants need a crane that can pick, stack and transfer heavy carbon blocks accurately while operating in a dusty, high-temperature environment. Standard hook cranes are usually inefficient for this process because block geometry, stack density and production throughput require a purpose-built lifting attachment.
Henan Mine Crane developed a carbon block stacking crane for a new carbon-material baking-furnace project in Shandong. The referenced crane uses a box-type double-girder structure, one trolley and two specialized lifting devices, with variable-frequency drives, rigid guide columns and centralized electrical protection.
Carbon blocks must be stacked closely and repeatedly around the baking process. The crane therefore has to combine accurate attachment positioning, stable clamping pressure and smooth bridge, trolley and hoisting movement.
The source project uses a lightweight design to reduce building cost. Its integrated three-in-one variable-frequency drive system supports low-noise, smooth starting and reduced impact on the crane structure and workshop.
The two lifting devices use rigid guide columns, multiple sets of rail-type guide wheels and high-strength wear-resistant guide tracks. Each lifting device can work independently or the two can operate together.
Henan Mine Crane configured the crane as a box-type double-girder, single-trolley system with two specialized lifting devices. The lighter structural concept reduces unnecessary dead weight while retaining the rigidity required for repetitive carbon-block handling.
The rigid-guide lifting arrangement uses several groups of rail-type guide wheels and wear-resistant guide tracks to control attachment movement. The two lifting devices can be operated separately or together, giving the production line more flexibility for different stacking and transfer tasks.
Bridge travel and hoisting use variable-frequency speed control. The electrical control system is centralized in a dedicated electrical room with an industrial internal-circulation air-conditioning system so the controls are better protected from the dusty, hot process environment.
Safety limits, emergency electrical switches, alarms and safety-monitoring devices are integrated into the crane to support dependable long-term operation.
| Recommended Crane | Carbon Block Stacking Double-Girder Overhead Crane |
| Crane Structure | Box-type double girder + single trolley + dual lifting devices |
| Attachment | Dual rigid-guide carbon-block lifting devices |
| Drive Control | Variable-frequency travel and hoisting with integrated three-in-one drives |
| Environment | High-dust and high-temperature carbon-material baking workshop |
| Electrical Protection | Centralized electrical room + industrial internal-circulation air conditioning |
Full workshop view of the double-girder crane and its dual rigid-guide lifting devices above the carbon-block storage area. |
Close view of the specialized carbon-block lifting device gripping multiple blocks for controlled stacking and transfer. |
The source project uses a box-type double-girder structure intended to reduce crane dead weight and help control workshop construction cost.
Two specialized lifting devices use rigid guide columns, multiple guide wheels and high-strength wear-resistant guide tracks for stable, accurate handling.
The two lifting devices can work independently or operate together, allowing the crane to adapt to different block-handling and stacking tasks.
The lifting system is designed to provide high and consistently maintained pressure, supporting reliable carbon-block gripping during transfer.
Variable-frequency bridge, trolley and hoisting control provides smooth starting and reduces mechanical shock to the crane and building structure.
The electrical system is centralized in a dedicated room with industrial internal-circulation cooling to improve reliability in the harsh baking-plant environment.
Safety limits, emergency circuit switches, alarms and safety-monitoring functions are incorporated into the operating system.
| Carbon Material Baking Plants | Stacking and transferring carbon blocks around baking-furnace production. |
| Carbon Block Warehouses | Organized pickup, stacking and retrieval of heavy carbon blocks. |
| High-Dust Process Workshops | Material handling where electrical systems need stronger environmental protection. |
| High-Temperature Industrial Plants | Specialized lifting where heat exposure and repetitive duty exceed general workshop conditions. |
Provide carbon-block weight and dimensions, maximum number of blocks per lift, stack layout, workshop span and length, lifting height, required cycle time, duty class, temperature, dust conditions, control mode and power supply.
Rigid guide columns limit unwanted lifting-device movement and improve repeatability when the attachment must align accurately with closely stacked carbon blocks.
Yes. The referenced project states that the two lifting devices can operate independently or together.
The referenced design uses variable-frequency drives and places the electrical control system in a centralized electrical room with dedicated industrial internal-circulation air conditioning.
The source page confirms intelligent and variable-frequency control features but does not specify a complete unmanned warehouse system. A higher automation level can be evaluated separately from the buyer's stack coordinates, sensors, production interfaces and required operating logic.
Send your carbon-block dimensions, maximum lifted quantity, stack layout, workshop drawing, production cycle, dust and temperature conditions. Henan Mine Crane engineers will review the application and prepare a project-specific crane proposal.