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Outputs
Scheduled:
Work
Planned Work: (Requirements are ordered by due date)
Work for Daniel K
Shopping for materials for the bracelet and parts.
I went with Alexandre M. to Sial in Laval to look for materials.
Work for Alex
Shopping for materials for the bracelet.
Went to sial with daniel
Unplanned Work:
Translated my LabView code into something that another person can understand to put it into Arduino code.
https://docs.google.com/document/d/1wS3qtN9QlUniXZmpVc6CRl0LY7XDON0fh53rh5spAR8/edit#heading=h.iqdy4oaks4p6
I communicated that to DanielK and Enrique.
Improvements to the LabView program and redesigned it to be easier to translate into Arduino code.
We are down to 15 sec with the two Arduino Uno, driven by LabView. The min I can go for a command is 1ms, since it requires USB communication for each read and right. If we implement this into a sketch I think we can easily bring this time down to one second.
I also created a timing parameter table, to make it easier to adjust the system to lower time values.
Completed the RGB LED addition to the prototype. I had to build the electronics, to add the two RGBs to the 2 Arduinos, and to modify the LabView program to integrate the RGB capability, made a video and shared it with the team and on social media.
https://www.youtube.com/watch?v=v_qwG261ZNI
I worked with Enrique on the RGB LED. We figured out how to connect it to an Arduino Uno board and we tested it with a LabView program. We now need to integrate the code into the larger LabView program that runs the entire system, for proof of concept. This LabView program will be translated into an Arduino sketch later. We also documented our work in the main R&D doc.
I worked with Tibi on the RGB LED. We figured out how to connect it to an Arduino Uno board and we tested it with a LabView program. We now need to integrate the code into the larger LabView program that runs the entire system, for proof of concept. This LabView program will be translated into an Arduino sketch later. We also documented our work in the main R&D doc.
Worked with Tibi on IR proximity sensor communication.
We completed the Arduino-based electronic setup and improved the LabView program, and troubleshot and tested. Here's the video with results
https://www.youtube.com/watch?v=pqPLoloqEps
Worked with Daniel on IR proximity sensor communication.
We completed the Arduino-based electronic setup and improved the LabView program, and troubleshot and tested. Here's the video with results
https://www.youtube.com/watch?v=pqPLoloqEps
Worked with Daniel on 3D printing the first prototype. We had to adapt the designs for the 3D printing process and we sent the order to 3D print them.
Worked with Daniel on 3D printing the first prototype. We had to adapt the designs for the 3D printing process and we sent the order to 3D print them.
Finished the proof of concept with LabView for communication between the two devices. That was accomplished. After, I modify the program to run it in the Arduino hardware itself, and tested it. In other words, I removed all the technical barriers for the crowdfunding prototype to work.
There is still some work to be done, which is to transfer the labview code into Arduino code, but this comes without problems to solve, it's just a translation issue.
Worked on a Arduino and LabView program for the prototype.
The LabView program is for building the algorithm, but we can also use LabView to program the Arduino. Almost ready, just a few more bugs to solve.
Most of the work was done on communication - coordination between devices, exchange of data. This is a simple algorithm, to show the concept with a first prototype, that we'll prepare for a crowdfunding campaign.
Had to commute to the store to buy this and other things, I divided the 1:30h of time into different components.
Installed, learned and created simple examples of Arduino applications using MyOpenLab. I documented everything in a HELP document.
https://docs.google.com/document/d/1C5zjm4DSVXrGeTRqTPT_QEClL80fFLWE1tIxKrsZgjM/edit#
The examples are relevant to this project - monitoring a photoresistor and blinking an LED.
Worked in the presence of Alex on prototyping the proximity sensor.
I used an Arduino Nano, a photoresistor and an LED. The experiment was to write a small program that lights an LED when a given level of light is detected by the photoresistor. This simple proof of concept experiment worked well. Work was documented here.
https://docs.google.com/document/d/1wS3qtN9QlUniXZmpVc6CRl0LY7XDON0fh53rh5spAR8/edit#heading=h.kttjghxt2z1c
Usable Inputs
Unplanned Use:
Process context:
Pattern:
Generic R&D
Context: Matchmaking Device
Order:
Work order 142 for Matchmaking device R&D plan due: 2014-09-28
Previous processes:
Product design stage to Matchmaking device R&D plan starting 2014-09-25 ending 2014-09-28
Next processes:
Manufacturing stage to Matchmaking device R&D plan starting 2014-10-05 ending 2014-10-12
Process notes:
Prototyping stage of an R&D process. This stage is about making something tangible, in the physical world, that uses a design and that works to a satisfactory level.
During the R&D process there is a cycle between Prototyping and Design, meaning that the prototyping process might unravel problems with the design, which will trigger changes of the design.
Prototyping produces a detailed description of a tangible thing, how it is made, how it functions, how well it functions. This description is based on empirical data or physical experimentation.
This process is also known as Testing and Refinement: Construction and evaluation of multiple pre production versions of the product. Early (alpha) prototypes are usually built with production intent-parts-same geometry and material properties as intended for the production version of the product but not necessarily fabricated with the actual processes to be used in production. Alpha prototypes are tested to determine whether the product will work as designed and whether the product will satisfy the key customer needs. Later (beta) prototypes are usually built with parts supplied by the intended production process. Beta prototypes are extensively evaluated internally and are also typically tested by customer in their own use environment. The goal here is to answer questions about performance and reliability in order to identify necessary engineering changes for the final product.
INPUT: a product design
OUTPUT: a detailed description placed in the main document
More than one prototype can be made, tested and documented during this process.