Heavy Duty Double Girder Overhead Crane for Steel Structure Workshop

♦Compact Structure and Lightweight Design: Compared with conventional crane systems, the double girder overhead crane designed to European standards features a more compact structure and significantly reduced dead weight. Advanced engineering optimizes the steel structure and component layout, allowing the crane to deliver high lifting performance while placing less load on the building structure. This makes it suitable for both new installations and upgrades of existing workshops.

♦Low Headroom for Maximum Space Utilization: The low headroom design minimizes the distance between the hook and the ceiling, enabling efficient use of vertical space. This is especially beneficial for factories with limited building height, as it allows higher lifting heights without structural modifications.

♦Standardized Modular Design: Key components such as motors, reducers, and wheel sets are designed using a standardized modular concept. This modularity simplifies maintenance, reduces downtime, and makes component replacement faster and more cost-effective over the crane’s service life.

♦Low Noise and Energy Efficiency: Equipped with European-standard motors and transmission systems, the double girder overhead crane operates with minimal noise and vibration. Energy consumption is reduced by approximately 20–30% compared to traditional cranes, helping lower operating costs while supporting sustainable and efficient production.

The price of an overhead crane is influenced by multiple technical and operational factors. When requesting a quotation from an overhead crane manufacturer, providing clear and detailed information will help ensure an accurate and cost-effective solution. Key factors include:

♦Intended Application: The specific job your crane needs to perform—such as material handling, assembly, or heavy-duty lifting—directly impacts the crane’s design, configuration, and overall cost.

♦Future Business Expansion: If you plan to expand operations or increase production capacity, the crane may need to be designed with higher specifications, which can affect pricing.

♦Lifting Capacity: The maximum rated load the crane must lift is one of the most critical cost factors. Higher capacities require stronger structures, larger hoists, and more robust components.

♦Crane Span: The horizontal distance between runway rails determines the span. Longer spans require additional steel and reinforcement, increasing material and manufacturing costs.

♦Lifting Height: The required hook or lifting height affects crane structure, hoist selection, and building compatibility, all of which influence the final price.

♦Usage Frequency: How often the crane will operate—light, moderate, or heavy duty—determines the duty class and component quality needed, impacting long-term cost and reliability.

♦Runway Requirements: Whether a new runway system is required, and the length of the bay the crane must travel, can significantly add to the total project cost.

♦Building and Structural Conditions: Special installation requirements, limited space, or structural reinforcements may require custom engineering solutions, increasing overall expenses.

♦Understanding these factors helps ensure you receive a crane that meets both your operational needs and budget expectations.