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THE IDEA

A programmable articulate joint

The goal of this project is to design and create an articulatable 3 component device that mimics the motion of a human finger. The device will be designed from scratch, and should be programmed to be able to move through the range of motion that a finger can. This will be achieved using CAD, Arduino, and resin printing.

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Joint Prototypes 1.21, 1.22, and 1.23 in a Solidoworks Assembly

GOALS

1. Mechanical

Met:

1.1. Three segments approximately equal in length and size to human bones

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1.2. Segments are connected to allow same range of motion as a human finger

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1.3. Mechanical "tendons" to hold and adjust position of device

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In Progress:

1.4. Device can hold weight of 5lb in bent/closed position

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1.5. Device can withstand the motion of opening and closing 1000+ times

2. Electrical

Met:

2.1. "Tendons" can be tightened and loosened via servos to adjust the position of the joints

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In Progress:

2.2. Battery length of 2+ hours of use

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2.3. Battery is easy to access and/or rechargeable 

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2.4. Arduino programmed to control position of finger based on angle of joint

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TOOLS AND SOFTWARE

Hardware and Tools

-Resin Printer - Elegoo Saturn 3 Ultra

-Resin(s) - Any-cubic Plant Based, Elegoo Plant Based

-Arduino UNO WiFi Rev.2

-Arduino Motor Shield Rev.3

-ECO POWER Digital Micro 12g Servo

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Software

- Arduino IDE 2.3.2

- Solidworks Premium

THE PROCESS

The entire design process documented via the engineering design cycle

THE RESULTS

The results of the project, and comparison to original specifications

About Me

Howdy!
My name is Niamh Coles, I am a sophomore undergraduate student pursing a degree in Multidisciplinary Engineering Technology at Texas A&M. I have a passion for bionic prosthetics, and pursued this project as a way to express my creativity and further my knowledge of robotics.

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In my free time, I enjoy oil painting, crocheting, and cooking, as well as spending time with my cats and dog :)

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Niamh Coles

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