-The challenge is developing an operational sleep shift scheduling tool that provides autonomous customization of a schedule for sleep, exercise, and nutrition to manage fatigue.
-The most of applications are working as an alarm to organize our sleep time only, but what distinguishes our application is:
- it is interactive with the user which it doesn't depend on the fixed data which entered by the user only but It is affected by the daily changed data such as sleeping periods, exertion and consumed calories...etc. This data will be collected through the sensors which exist into wristbands which workers will wear and send these data to the app with serial Bluetooth communication and depending on these received data the application will provide the user with a nutrition system. so, it will help all workers (astronauts or people in general)
-our application and the wristband are officially able to regulate the workers' sleep time, nutrition system and exercises also.So, their health will be stable and they will be more efficient in their work .
1) The user enters the required data such as age, weight, and work hours.
2) The user will wear the wristbands to detect the other variable data (by sensors which exist on it) such as sleeping periods, exertion, consumed calories and heart beats to know from it if the user is awake or sleep.
3) These data which collected by the wristbands will be send to the application with serial Bluetooth connection.
4) After sending the data to the application, then it will be able to provide the user with the most suitable nutrition, sleep, exercise system.
-Although sleep and nutrition are two of the biggest factors affecting human life in terms of health, efficiency, and productivity, they do not receive much attention like others. Our knowledge about the subject is not only limited to reading, but we have tried the night work periods at certain times of the study, such as working days on projects. We noticed how much work at night could cause disturbances in nutrition, concentration, and health, such as low blood pressure, and thus the efficiency of work was reduced and it took more time. And here came the inspiration. The issue is dangerous, especially if it is repeated and inevitably needs a solution.
We followed some steps in order to reach a good definition of the problem, enabling us to reach an ideal solution. In the beginning, we studied the changes that happen to the body when there is an imbalance in nutrition, sleep, or stress, and we looked for some previous solutions to know what is lacking. And we came up with the idea of the solution, which is the work of an application that organizes the worker's entire lifestyle in terms of nutrition, sleep, and effort. But what distinguishes this application is its ability to interact with the daily and unexpected changes of the day's course. This is done through a bracelet that the worker wears to monitor his health. The first implementation steps were to determine the appropriate components to achieve the goal. After that, we made electrical designs, then we coded the wristband. Finally, the application was made and the beginning of correspondence between them.
NASA had already worked on this challenge by using ISS Fit for tracking food consumption, Health Maintenance System (HMS) Periodic Health Status (PHS) and currently collects sleep data and it is composed of total sleep time, start and end times, date of data period, sleep onset, sleep latency, sleep efficiency, wake after sleep onset, and light. NASA also has put in consideration FMS plans to also include sleep phases: light, deep, rapid eye movement, and wake and these plans that we are working on achieving them using our application and the wristband. And we have studied ISS Daily Summary Reports that NASA provides to know more about astronaut’s lifestyle at space.
The work is divided into two parts, the first part was on the wristband. We used much software to get the best possible hardware such as Easy EDA for the schematic, EAGLE for the PCB, and Fusion 360 to make a 3d model to the PCB. In the software part, we used the Arduino IDE to upload the code, c, and c++ programming languages. We used Arduino.cc as a reference for the components' datasheets also.
The second part was the application. We used Python as a primary programming language, and PyQt5 to make GUI for our application.
-While working, we have faced some problems. At first we used Easy EDA, but it had a disadvantage that it did not convert schematic to PCB. So we switched and used Eagle but it doesn't have 3D, so we used Proteus. While using Easy eda we were using its modules, but while working on Eagle, modules were not on it, so we used a library for each piece and replaced some with ICs.
We have achieved the purpose of our work which is to create a tool which is capable of adapting an individual's sleep schedule with countermeasures to maintain circadian entrainment, provide exercise guidelines, and provide nutritional guidelines. And as currently there are no applications that support all three areas of sleep schedules, exercise regimens, and nutritional guidance, we have achieved the purpose of our challenge.
Improving Slumber on the Space Station With Sleep-Long
https://www.nasa.gov/mission_pages/station/research/news/Sleep_Long.html#:~:text=Whether%20on%20Earth%20or%20in%20orbit%2C%20sleep%20is,one%20alarm%20bell%20away%20from%20a%20life-and-death%20situation.
ISS Daily Summary Report – 10/27/2017
https://blogs.nasa.gov/stationreport/2017/10/27/iss-daily-summary-report-10272017/
Remodeling Research for Astronaut Bone Health
https://blogs.nasa.gov/ISS_Science_Blog/2013/04/15/post_1348152821740/
STEMonstrations: Sleep Science
https://www.youtube.com/watch?v=1AG9f0dmg2w
Diet, Exercise and Sleep
https://www.sleepfoundation.org/articles/diet-exercise-and-sleep
https://zapier.com/blog/best-fitness-tracking-apps/
https://docs.google.com/presentation/d/11qpoQfcgChqJK7KmD9MLZq7bYe89s1jMo_fRdzVX6-A/edit?usp=sharing
1) Dunbar, B. (n.d.). Improving Slumber on the Space Station With Sleep-Long. Retrieved October 04, 2020, from https://www.nasa.gov/mission_pages/station/research/news/Sleep_Long.html
2) Keeter, B. (2017, October 27). ISS Daily Summary Report – 10/27/2017. Retrieved October 04, 2020, from https://blogs.nasa.gov/stationreport/2017/10/27/iss-daily-summary-report-10272017/
3) Robinson, J. (2013, April 15). Remodeling Research for Astronaut Bone Health. Retrieved October 04, 2020, from https://blogs.nasa.gov/ISS_Science_Blog/2013/04/15/post_1348152821740/
4) STEMonstrations: Sleep Science - YouTube. Retrieved October 4, 2020, from https://www.youtube.com/watch?v=1AG9f0dmg2w
5)Nutrition, Exercise & Sleep. (2020, September 25). Retrieved October 04, 2020, from https://www.sleepfoundation.org/articles/diet-exercise-and-sleep
6)Pike, J. (2020, September 30). 20+ Fitness Tools that Track Your Exercise, Meals, Sleep, and More. Retrieved October 04, 2020, from https://zapier.com/blog/best-fitness-tracking-apps/