Developing next generation Internet of Things biofeedback application and Joining the company’s mission of “Bringing Life Changing Impact Through Wearable Sensor Technologies” Contact: KTH: Jan Markendahl (janmar@kth.se), Mårten Sundquist (msundqu@kth.se) Biosync Technology AB: Björn De Jounge (bjorn.dejounge@biosynctechnology.com) Introduction The Internet of Things market is developing quickly as the cost and availability of sensors are developing favorably, mobile internet is becoming ubiquitous and the success of the smartphone ecosystem is continuing. Biosync Technology AB is an award-winning innovative research-based Internet-Of-Things (IoT) company (http://www.biosynctechnology.com) aiming to reduce employees’ sick leaves and prevent financial losses by introducing a disruptive tool and service based on enabling wearable sensor technologies. The system is a wearable IoT application that was brought forth through research in the Mobile Life centre, the SICS-part of the centre, lead by professor Kristina Höök. It has been extensively published in the highest renowned international venues (turn to www.sics.se/ah). During research phase, the wearable IoT application consisted of two parts: a sensor-bracelet and an app. The sensor-bracelet picks up on basic bodily expressions of short-term stress, such as skin conductance and movement, wirelessly sending the data, in real-time, to the mobile. The data generated is stored in a secure cloud solution, allowing it to be accessed from multiple platforms. The app, currently available both on the mobile and on the web, shows the bio-data from the bracelet both in real-time, enabling a biofeedback loop, and over time (days or even months). Biofeedback technique was proven to be effective in changing people’s health behavior1,2. The design is a unique, evocative, colourful animation. Presenting stress bio-data in ambiguous way to the end-user was proved to motivate people to reflect on their behavior and find behavior patterns for themselves3 4. The system uses data analysis to calibrate to the individual user, clean the data from noise, and portray the data relative to a time window to ensure catching small, but significant changes. The first version of the system was tested in 2012 in a study where four participants from Stockholm Municipality used the system daily during a month each. Positive confirmation was obtained that the system worked as intended. The participants learnt more about their somatic responses and even changed their behaviour. A whole year after the study, the effects remained. Afterwards all four participants wanted to keep the system. In 2014, Biosync Technology AB has started a joint project COIN-SWEAT led by KTH@Wireless in collaboration with Friskis&Svettis Uppsala (http://wireless.kth.se/sweat/ ). The aim of the project is to 1 Milosevic M, Shrove MT JE. Applications of smartphones for ubiquitous health monitoring and wellbeing management. J Inf Technol Appl. 2011;1(1):7–15 2 Lin G, Xiang Q. Heart rate variability biofeedback decreases blood pressure in prehypertensive subjects by improving autonomic function and baroreflex. J Altern Complement Med. 2012 Feb;18(2):143-52. doi: 10.1089/acm.2010.0607 3 Stahl A. et al. “Evocative Balance: Designing for Interactional Empowerment”. International Journal of Design Vol. 8 No. 1 2014 . 4 Ouwerker M et al. “Wireless Multi Sensor Bracelet with Discreet Feedback” study how IoT application can improve people’s motivation to exercise. Biosync’s solution will be tested during the study starting in Autumn 2015. Overview of the product SOLUTION: a biofeedback system for stress measurement and management SelfManagement of Stress Healthcare Interven on Improved Well-being and Saved Costs Algorithm Cloud Storage The system consists of a wristband with biosensors, algorithm for data filtering, mobile application with interactive visualization and cloud platform (Figure 1). Figure 1. Overview of a biofeeback system for stress management. Master Thesis The Master Thesis will include studying, analyzing and designing the business model for the application developed by Biosync Technology AB in the context of COIN-SWEAT project. The thesis work will take part at the Biosync Technology AB office in Kista with supervision from both Biosync and KTH. The following subtasks are expected to be performed: Literature study of existing solutions for better stress and sleep measurement. Which business models are used? How is the market developing? What is willingness to pay and who is a payer? What revenue model is feasible? Perform stakeholder mapping. What role in the value chain Biosync should have? What roles do other stakeholders have? Suggest enhancements for the application based on received insights