1
MLivin’ it
Engineering productive health, anytime, anywhere
Goh Chen Gang, Low Zi An, Marion Pang, Xie Mingrou
ASN Hackathon 2021
Problem: Non Communicable Diseases
2
https://www.who.int/news-room/fact-sheets/detail/noncommunicable-diseases
Images from BioRender
>70%
annually
3
Smoking
Physical inaction
Poor Diet
Drinking
NON COMMUNICABLE DISEASES (NCDs)
Risk Factors
Can be changed!
Case Study: Singapore
Mean Salt/day = 9 g >>> 5 g (Maximum)
Sugar/day = 60 g >>> 25 g (WHO)
Calories/day = 2470 >>> 2200/1800 (HPB)
4
National Nutrition Survey (2018)
(Males) (Females)
WHO: World Health Organisation
HPB: Health Promotion Board
COVID-19 - Challenges
5
Wellbeing
Images from BioRender
Productivity
Apps → Crucial facilitator
Current Apps
Health
Productivity
Wellbeing
6
Noom
Lose it!
Todoist
Any.do
Headspace
Happify
https://www.healthline.com/health/diet-and-weight-loss/top-iphone-android-apps#lose-it
https://www.tomsguide.com/round-up/best-productivity-apps
https://www.menshealth.com/health/g22842908/best-health-and-fitness-apps/
https://play.google.com/store/apps/details?id=com.todoist
https://play.google.com/store/apps/details?id=com.anydo
https://play.google.com/store/apps/details?id=com.getsomeheadspace.android&hl=en_US
https://play.google.com/store/apps/details?id=com.happify.happifyinc&hl=en_SG&gl=US
Not integrative!
Our Idea - App for Productive Health
7
Wearable device
8
CALORIES INTAKE
CALORIES BURNT
GENDER
BMI
SLEEP ANALYSIS
TIME
Wearable device
Food recognition (mobile phone)
SMART SCORE +
SUGGESTIONS
Workout
Eat/Snack
>
<
Personal Health & Wellbeing
User input data
9
PRESET DAY MODE
TO-DO LIST
DAY RATINGS
SCREEN TIME
SMART ANALYSIS
Productivity
WORK
CHILL
SOCIALS
STAY-AT-HOME
OUTDOORS
CATEGORISED APPS
REMINDER
POSTPONE
PROCRASTINATION SCORE
MOOD
SATISFACTION
PRODUCTIVITY SCORE
WEARABLE DEVICE DATA
Key Advantages
10
ML Algorithms
11
Computer Vision
Time-series analytics
Image Recognition
Deep Convolutional Neural Network
Transfer Learning
Time-series Decomposition
Trend/Seasonality Analysis
Computer Vision for food recognition
12
User-
taken pictures
Data returned to device
Nutrition Database
Images analyzed on server
Nutritional values pulled from online database
Computer Vision for food recognition
13
Our quick implementation: �~90% ACCURACY
Training images pulled from Google
DCNN ResNet-18
Transfer Learning
DCNN: Deep Convolutional Neural Network
Computer Vision for food recognition
14
Training with 5 classes, n=150
Computer Vision for food recognition
15
Successful identification:
Unsuccessful identification:
App Demo Video
16
Path to successful deployment
17
1
3
5
6
4
2
Launch the app on the app store (freemium model)
Market analysis of relevant stakeholders
Test the app on a select group of volunteers and debug
Integrate with nutrition datasets
Do alpha and beta testing
Continue with support for users and continual updates
Thanks!
Any questions ?
18