Banked Zipline Turns with Modular Guide Rods
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Solution Overview
Problem
Traditional zip lines are straight and lack turns, offering limited dynamic experiences, and do not allow for multiple paths or easy rider loading/unloading, with riders needing to return to the starting point to ride again.
Innovation Solution
A zipline system with modular sections that includes turn sections with guide rods to allow for curved paths, centrifugal force experience, and multiple loading zones, featuring a trolley with specialized wheels and a cable system that transitions between straight and turn sections, and incorporates LED lighting for enhanced experience.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Device complexity
If traditional straight zipline design is used, then structural simplicity is maintained, but ride excitement and dynamic experience are reduced
Solution Approach 1:
The zipline is divided into multiple modular sections that can be configured in different arrangements. Each section can be independently designed and assembled, allowing for straight sections, turn sections, and various configurations to create diverse ride experiences while maintaining operational simplicity through standardized modules
Solution Approach 2:
Turn sections with curved paths are integrated into the zipline design, allowing riders to experience centrifugal force and dynamic movement. The curved geometry of turn sections provides the necessary centripetal force to maintain riders on the path while delivering the expected thrill and excitement
2Device complexity
If traditional single-direction zipline is used, then system simplicity is maintained, but operational flexibility and rider convenience are reduced
Solution Approach 1:
Multiple loading zones are created by segmenting the zipline system into independent sections. Riders can be loaded at different locations along the zipline, and the modular design allows for easy configuration of loading/unloading points without requiring complex system-wide changes
Solution Approach 2:
The zipline system incorporates movable or adjustable components that allow for flexible operation. Loading zones can be dynamically positioned or reconfigured to accommodate different rider needs and preferences, enhancing operational flexibility while maintaining system simplicity
3Device complexity
If riders must return to starting point to ride again, then system simplicity is maintained, but time efficiency and operational productivity are reduced
Solution Approach 1:
The zipline is divided into modular sections that can be independently configured to create loopback paths. Riders can complete multiple rides by traveling through different sections in sequence, eliminating the need to return to the starting point and improving operational productivity through efficient path design
Solution Approach 2:
The zipline incorporates vertical and spatial dimension changes through varied elevation profiles and multi-level sections. Riders can experience multiple paths and destinations by utilizing the three-dimensional configuration of the zipline, allowing for efficient ride repetition without requiring return to the origin
4Adaptability or versatility
If modular sections are added to zipline, then adaptability and ease of replacement are improved, but system complexity increases
Solution Approach 1:
The zipline is divided into standardized modular sections that can be easily assembled and reconfigured. Each module is designed with consistent connection interfaces and specifications, allowing for simple assembly and disassembly while enabling diverse path configurations through combinatorial arrangement of standard components
Solution Approach 2:
The modular sections are designed with universal connection mechanisms and standardized dimensions that allow them to function in multiple configurations and locations. The same module type can be used in straight sections, turn sections, and various elevations, reducing overall system complexity through standardization while maintaining high adaptability
Applied Scientific Principles
This section explains which scientific principles are used to turn an abstract innovation direction into a practical engineering solution.
Function Achieved in This Case
Enables high-speed turns with centrifugal force experience, modular and flexible path design, and efficient rider loading/unloading, allowing the zipline to return to a lower elevation near the starting point, enhancing thrill and operational efficiency.
Implementation Method 1
The trolley can lean outwards at the turn sections, allowing the rider to enjoy the experience of the centrifugal force
Implementation Method 2
Conventionally, gravity propels the rider from the higher starting point to the lower end point
Data Source
AI summary
A novel zipline can include banked turns. A rider can ride around turn sections, and the rider can swing out under centrifugal force, extending out at an angle away from the center of the turn. The zipline can be extended, with additional legs added while the zipline remains operational. The zipline can have multiple paths, multiple ending zones, and multiple starting zones. The zipline can be illuminated from within, and can be illuminated with multiple colors.