1. Enhanced functionality: A 3D-printed robotic hand with human-like bones and tendons can greatly improve the functionality of assistive technology, enabling more natural and precise movements.
2. Personalized fit: 3D printing allows for customization, ensuring that the robotic hand fits each individual user perfectly, maximizing comfort and usability.
3. Cost-effective: Compared to traditional manufacturing methods, 3D printing can potentially reduce costs in the production of robotic hands, making them more accessible and affordable.
4. Rapid prototyping: The ability to quickly iterate and make adjustments using optical scans to identify and correct flaws in each layer allows for efficient development and testing of the robotic hand.
1. Complexity of design: Creating a robotic hand with human-like bones and tendons requires intricate design expertise, which could pose challenges in terms of time and resources.
2. Durability: The durability and long-term reliability of 3D-printed robotic hands may be a concern compared to those made from traditional materials.
3. Limited material options: The available materials for 3D printing might not provide the same structural properties and strength as human bones, which could affect the overall performance and lifespan of the robotic hand.
4. Accessibility barriers: Despite potential cost reduction, 3D printing technology itself may still be costly and inaccessible for some individuals or communities, limiting widespread adoption of this assistive technology.
During the printing process, layers are systematically created. After each layer is completed, an optical scan meticulously identifies imperfections. These flaws are then promptly rectified in the subsequent layer.