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fabricademy2017:students:detoledomotta.naiadelara:week_9 [2017/11/23 15:51] naiadelara.de-toledo-motta created |
fabricademy2017:students:detoledomotta.naiadelara:week_9 [2017/12/06 08:38] naiadelara.de-toledo-motta |
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**Assignment: **Create an interactive object; if you are already experienced with coding, focus on fully integrating a microcontroller into a textile circuit. If you are new to coding, choose an example and get it working using your own sensors and actuators. | **Assignment: **Create an interactive object; if you are already experienced with coding, focus on fully integrating a microcontroller into a textile circuit. If you are new to coding, choose an example and get it working using your own sensors and actuators. | ||
- | **Idea: **Pocket with buttons to different phrases/music. For this idea I'll be using the Sparkfun Lilipad mp3 board. | + | **Idea: **Glove for helping blind-deaf people to communicate with simple phrases outside or in any non-adapted location. For this idea I used the Sparkfun Lilypad mp3 board that is able to store in a sd card different sound commands. |
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+ | **MATERIAL AND TECHNIQUES ** | ||
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+ | **1. Look for Open Source code for Lilypad mp3 with different sound output depending on input location. {{:students:images:untitled.jpg?nolink&180x237 }}** | ||
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+ | The code was found in an open source website for a similar experiment with conductive ink and the code was adapted to this project.{{ :students:images:untitled2.jpg?nolink&250x191}} | ||
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+ | Afterwards the proper code was uploaded in the Lilypad board and the electrical system was build up around it. | ||
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+ | For the experiment extra cable connections were used to connect the board and speakers. | ||
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+ | After a successful try out the circuit was redesigned to fit into the glove surface. The first sketches were made on paper but afterward it had to be digitalized. | ||
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+ | **{{:students:images:untitled3.jpg?nolink&400x231 }}** | ||
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+ | **3. Design the circuit and gloves with Rhino already putting it into scale.{{ :students:images:untitled9.jpg?nolink&150x209}}** | ||
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+ | This step is necessary to prepare the vectors to be cut with the laser cutter. The O//ffset// tool was often used to ensure the same 3mm thickness of the conducting path. | ||
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+ | **{{:students:images:untitled4.jpg?nolink&250x280 }}** | ||
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+ | **4. Prepare conductive textile and cut it with laser cuter {{ :students:images:untitled5.jpg?nolink&200x220}}** | ||
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+ | In this step a special double sided adhesive paper heat activated was used to glue the conductive textile on the glove. | ||
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+ | **5. Assembly: Sewing and Soldering** | ||
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+ | The final details required the conductive thread to connect the circuit of conductive textile and normal non-conductive was used to sew the glove together. | ||
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+ | {{:students:images:untitled6.jpg?nolink&400x315 }} | ||
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+ | {{:students:images:untitled7.jpg?nolink&300x396}} {{:students:images:untitled8.jpg?nolink&300x396}} | ||
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+ | The final product of this weeks assignment is therefore a prototype of a glove that needs to be covered inside to avoid chocks and waste of battery. This glove works and fits its purpose of innovative solution with textile for care. | ||