Right Angle Gearbox
As part of a team of 4, we designed and modeled an offset right angle gearbox with a ratio of 1:4. This design was created to be fully 3D printable, ensuring ease of production and assembly. The gearbox was optimized for compactness and efficiency, making it ideal for various applications requiring space-saving solutions.
3D Printable Mechanical Design
As part of a team of 4, we designed and modeled an offset right angle gearbox with a ratio of 1:4. This design was created to be fully 3D printable, ensuring ease of production and assembly. The gearbox was optimized for compactness and efficiency, making it ideal for various applications requiring space-saving solutions.
Project Overview
This collaborative mechanical design project involved creating a compact right angle gearbox with a 1:4 gear ratio. The design prioritizes 3D printability, ease of assembly, and optimal space utilization while maintaining mechanical efficiency and reliability.
Key Features:
- 1:4 gear ratio for torque multiplication
- Offset right angle design for space efficiency
- Fully 3D printable components
- Optimized for easy assembly and disassembly
- Compact form factor for space-constrained applications
- Team collaboration of 4 members
Technologies Used:
Project Documentation:
View Assembly Instructions PDFDesign Specifications
Gear Ratio
1:4
Input to output speed reduction with corresponding torque increase
Configuration
Right Angle Offset
90-degree power transmission with offset shaft alignment
Manufacturing
3D Printable
All components designed for FDM 3D printing processes
Assembly
Snap-fit Design
Tool-free assembly with integrated fastening features
Design Process
1. Conceptual Design
Initial brainstorming and feasibility analysis for the right angle gearbox concept, considering gear ratio requirements and space constraints.
2. 3D Modeling
Detailed CAD modeling of all gearbox components, including gears, housings, shafts, and bearings, optimized for 3D printing.
3. Team Collaboration
Division of work among team members for different components, with regular design reviews and integration testing.
4. Prototyping & Testing
3D printing of prototype components, assembly testing, and performance validation to ensure functionality and reliability.
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