Design Competition: Biomedical Solutions for Heat Stress Mitigation
Introduction: We are forecast to have another record setting summer. Heat-related illness poses a growing biomedical challenge as climate change intensifies environmental heat exposure, particularly among vulnerable populations such as outdoor workers, older adults, and individuals with chronic conditions. Effective prevention and intervention require continuous, real-time monitoring of physiological and environmental parameters.
Specifications:
2 sensors/ actuators in total with one of them being custom (meaning not a off the shelf sensor/actuator we have used in the class)
Wireless communication
Battery powered and rechargeable
Wearable housing
Software for acquiring, processing, and analyzing data
BANS:
Team 1: ❌ Arm
Team 2: ❌ Torso
Team 3: ❌ Legs
Team 4: ❌ Arm
Team 5: ❌ Torso
Team 6: ❌ Legs
Team 7: ❌ Arm
Team 8: ❌ Torso
Team 9: ❌ Legs
Task:
Identify a clinical need and use it as a basis for your device design. Provide scientific evidence for this clinical need with appropriate papers and statistics from peer reviewed sources
Do NOT place a sensor at a location your team is banned from
Test the device against the gold standard sensor in a trial on competition day
Keep and update a Gantt chart with clear division of tasks and deadlines for task completion broken down by work hours
Maintain a continuously updated Engineering Journal with date and time for every entry
Every entry needs goals for working session, result of the session, and tasks to be solved for next session
Each entry should be entered chronologically
Due at the end of the design competition
Create a final presentation for the design competition
Create a final report for design competition
Grading:
Please refer to the rubric
Competition Categories (how we select a winner):
Accuracy (relative to gold standard)
Sensors will be tested in clinical trials against gold standard devices from the UA Sensor Lab to measure performance.
Reserve your sensor of choice for competition day
Place the reservation by April 22 (preferrably in advance, first come first serve)
Power Implementation
Sensors that incorporate low power functionality so that the device can last the longest without needing to be recharged in order to operate
Power consumption analysis during sensor activation and low power modes must be measured and used to calculate total time before recharge
Best UI design
Sensors will be evaluated on how easily the user can interact with the device (LEDs, screens, apps etc) along with how meaningful the data is that's provided to the user on said UI
Most Aesthetic Design (judged by BME 210 Students)
A 1 page marketing brochure pdf must be submitted before midnight Monday, April 22 which will be sent to BME 210 students to evaluate aesthetics of the wearable
Best literature research and definition of clinical need
The justification for the clinical need in the device and presentation will be evaluated to determine which team did most thorough background research on their sensors. This will be judged via both your presentation and report by the teaching team.
Best presentation
Teams will be evaluated based on a clear, informative, engaging and well done presentation
Best documentation
The engineering journal and Gantt Chart will be evaluated for completeness and detail. Engineering journal and Gantt Chart are due 1 day before the competition. To be submitted by May 5, 11:59 PM (Section 2), May 6, 11:59 PM(Section 1).
Misc Event Details:
The final event (presentation of your results and the completion that measures one biomarker against a gold standard) will take place in the Sensors lab (https://sensorlab.arizona.edu/about-us/where-are-we-located).
Please make sure that you book the tool of your choice for that day.
Prizes will be handed out the day of the competition
All hardware must be returned on challenge day in the Salter lab. Failure to return hardware results in delayed grades for the team
+ A ESP8266 dev. board