Tower Rides Expert Manufacturer

The lifting and installation process for a 30-meter drop tower follows a standardized and structured procedure to ensure installation accuracy, structural safety, and smooth commissioning:

1. Foundation preparation: The customer constructs the foundation strictly according to the foundation drawings provided by the installation factory, ensuring all dimensions and requirements are met.
2. Crane preparation:   Two cranes are required before lifting: One 50-ton crane/One 25-ton crane
3. Base fixation: Securely fix the rotating tower base onto the completed foundation.
4. Cabin steel frame installation: Install the steel frame structure for the rotating tower cabins.
5. Short section lifting: Lift and install the short section above the base.
6. Main tower column lifting: Lift and install the longest vertical column of the tower body.
7. Crown structure lifting: Lift and install the crown structure at the top of the tower.
8. Dual hydraulic cylinder adjustment:
   Adjust and extend the double hydraulic cylinders to achieve correct alignment and balance.
9. Commissioning and test run: Perform system commissioning and conduct test runs to confirm normal operation.

Sinorides ensures that each step is executed in accordance with installation standards, providing technical guidance and support throughout the lifting and installation process.

The required amount of steel reinforcement and concrete for a tower ride foundation is calculated based on the foundation layout drawing.

As a general reference, a standard foundation typically requires approximately 3 tons of steel reinforcement and steel plates, along with about 72 cubic meters of concrete. This estimate is based on a foundation depth of 2 meters and a foundation pit area of approximately 66 square meters, and is provided for reference only.

The actual foundation design and material quantities depend on the site-specific geological conditions. If soil conditions are poor or additional bearing capacity is required, the foundation depth may need to be increased, and the quantities of steel and concrete will need to be recalculated accordingly.

Sinorides evaluates foundation requirements based on project drawings and site conditions to ensure structural safety and long-term stable operation of the tower ride.

For a Sinorides 36-meter rotating tower ride, there are two main platform options for customers to choose from, depending on project preferences and site conditions:

• Steel platform: Customers can fabricate a steel platform according to Sinorides’ provided design drawings. This option is suitable for sites where a prefabricated metal structure is preferred.
• Concrete platform: Customers can construct a concrete platform while preparing the foundation based on the design drawings. This option integrates the platform with the foundation, which may simplify site construction in certain projects.

Sinorides provides detailed platform drawings and specifications to support either approach, ensuring safe, stable, and compliant installation of the 36-meter rotating tower ride.

The total power consumption of a tower ride consists of several main systems. Below is a typical power consumption breakdown, provided for reference:

Motor system (380V):

• Hydraulic pump motor: 75 kW
• Rotation motor: 7.5 kW
• Rotation cooling fan: 0.1 kW
• Heating element: 2 kW
• Cooling fan: 0.78 kW
• Lighting system (220V):
• Lighting: 2 kW
• Other auxiliary systems (220V):
• Control power supply: 1 kW
• Air compressor: 0.75 kW

The actual total power consumption may vary depending on operating conditions, configuration, and site requirements. Sinorides provides detailed electrical specifications based on the final equipment configuration to support accurate power planning and on-site installation.

While pneumatic tower rides offer a highly thrilling experience, they also present several limitations that should be carefully evaluated during project planning.

Energy efficiency:
Pneumatic systems experience energy losses during air compression and storage. Compared with electric or hydraulic drive systems, overall energy efficiency is generally lower. A continuously operating air compressor is typically the main source of high power consumption.

Compressed air quality requirements:
Although pneumatic systems usually require lower cleanliness levels than hydraulic systems, compressed air must still remain dry and clean. This necessitates the use of air dryers and filtration systems, increasing system complexity and ongoing maintenance requirements.

Air leakage detection:
Air leaks do not cause environmental contamination, but locating leakage points can be more difficult than detecting liquid leaks, often requiring specialized inspection equipment.

Passenger suitability:
Due to the high intensity of the ride experience, pneumatic drop towers are not suitable for all passenger groups and typically require stricter rider restrictions.

Based on long-term operational reliability, energy efficiency, maintenance considerations, and overall ride control performance, Sinorides does not recommend pneumatic tower rides configurations and instead supplies hydraulic rotating tower systems, which offer more stable operation, higher efficiency, and better suitability for long-term commercial operation.