Recognizing Drinking Adls in Real Time Using Smartwatches and Data Mining
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A Study of Bluetooth Low Energy Performance for Human Proximity Detection in the Workplace
CORE Metadata, citation and similar papers at core.ac.uk Provided by Apollo A Study of Bluetooth Low Energy Performance for Human Proximity Detection in the Workplace Alessandro Montanari, Sarfraz Nawaz, Cecilia Mascolo Kerstin Sailer Computer Laboratory, University of Cambridge Space Syntax Laboratory, University College London Cambridge, United Kingdom London, United Kingdom Email: [email protected] Email: [email protected] Abstract—The ability to detect and distinguish interactions in fine granularity but require dedicated hardware which hinder the workplace can shed light over productivity, team work and on adoption [11], [12], [13]. The recent interest in wearable employees’ use of space. Questionnaires and direct observations devices [14] has brought us to question if those devices are have often been used as mechanisms to identify office based interactions, however, these are either very time consuming, yield able to fulfill both needs. In particular we directed our attention coarse grained information or do not scale to large numbers of towards Bluetooth Low Energy (BLE) which is included in all people. Technology has been recently employed to cut costs and current wearables. We envision an interaction sensing system improve output, however precise interaction dynamics gathering that can be easily installed on a wearable device like a smart often requires individuals to wear custom hardware. watch thus extending its functionality to interaction sensing In this paper, we present an extensive evaluation of Bluetooth Low Energy (BLE) as a technology to monitor people proximity and offering widespread adoption. However, before this can in the workplace. We examine the key parameters that affect become a reality there are fundamental questions which need the accuracy of the detected contacts and their impact on power answers. -
The Use of Self-Tracking Technology for Health
Uitnodiging Thea Kooiman Voor het bijwonen van de openbare verdediging van mijn proefschrift The use of self-tracking technology for health BMI Steps Steps BMI Steps BMI BMI Steps BMI Steps BMI Steps Woensdag 7 november om 14:30 in het Academiegebouw van de Rijksuniversiteit Groningen, Broerstraat 5 te Groningen. Aansluitend bent u van harte welkom voor een hapje en een drankje in het Goudkantoor, The use of self-tracking technology for health for technology The use of self-tracking Waagplein 1 te Groningen. BMI Steps Graag voor 1 november aanmelden voor de borrel via [email protected] Thea Kooiman [email protected] [email protected] Paranimfen BMI Steps Emmy Wietsma Willemke Nijholt Contact [email protected] BMI Steps BMI Steps BMI BMI Steps BMI Steps Step The use of self-tracking s BMI s Step technology for health BMI Steps Thea Kooiman s Step BMI BMI Step s The use of self-tracking technology for health Validity, adoption, and effectiveness Thea Kooiman The work presented in this thesis was performed at the Research Group Healthy Ageing, Allied Health Care and Nursing, of the Hanze University of Applied Sciences, Groningen, the Netherlands. Printing this thesis was financially supported by: - Research group Healthy Ageing, Allied Health Care and Nursing of the Hanze University of Applied Sciences - University Medical Center Groningen (UMCG) The use of self-tracking technology - University of Groningen - Graduate School for Health Services Research (SHARE) for health - Vereniging van Oefentherapeuten Cesar en Mensendieck (VvOCM) - Nederlandse Obesitas Kliniek Validity, adoption, and effectiveness Proefschrift ter verkrijging van de graad van doctor aan de Rijksuniversiteit Groningen op gezag van de rector magnificus prof. -
A Survey of Smartwatch Platforms from a Developer's Perspective
Grand Valley State University ScholarWorks@GVSU Technical Library School of Computing and Information Systems 2015 A Survey of Smartwatch Platforms from a Developer’s Perspective Ehsan Valizadeh Grand Valley State University Follow this and additional works at: https://scholarworks.gvsu.edu/cistechlib ScholarWorks Citation Valizadeh, Ehsan, "A Survey of Smartwatch Platforms from a Developer’s Perspective" (2015). Technical Library. 207. https://scholarworks.gvsu.edu/cistechlib/207 This Project is brought to you for free and open access by the School of Computing and Information Systems at ScholarWorks@GVSU. It has been accepted for inclusion in Technical Library by an authorized administrator of ScholarWorks@GVSU. For more information, please contact [email protected]. A Survey of Smartwatch Platforms from a Developer’s Perspective By Ehsan Valizadeh April, 2015 A Survey of Smartwatch Platforms from a Developer’s Perspective By Ehsan Valizadeh A project submitted in partial fulfillment of the requirements for the degree of Master of Science in Computer Information Systems At Grand Valley State University April, 2015 ________________________________________________________________ Dr. Jonathan Engelsma April 23, 2015 ABSTRACT ................................................................................................................................................ 5 INTRODUCTION ...................................................................................................................................... 6 WHAT IS A SMARTWATCH -
Smartwatch Security Research TREND MICRO | 2015 Smartwatch Security Research
Smartwatch Security Research TREND MICRO | 2015 Smartwatch Security Research Overview This report commissioned by Trend Micro in partnership with First Base Technologies reveals the security flaws of six popular smartwatches. The research involved stress testing these devices for physical protection, data connections and information stored to provide definitive results on which ones pose the biggest risk with regards to data loss and data theft. Summary of Findings • Physical device protection is poor, with only the Apple Watch having a lockout facility based on a timeout. The Apple Watch is also the only device which allowed a wipe of the device after a set number of failed login attempts. • All the smartwatches had local copies of data which could be accessed through the watch interface when taken out of range of the paired smartphone. If a watch were stolen, any data already synced to the watch would be accessible. The Apple Watch allowed access to more personal data than the Android or Pebble devices. • All of the smartwatches we tested were using Bluetooth encryption and TLS over WiFi (for WiFi enabled devices), so consideration has obviously been given to the security of data in transit. • Android phones can use ‘trusted’ Bluetooth devices (such as smartwatches) for authentication. This means that the smartphone will not lock if it is connected to a trusted smartwatch. Were the phone and watch stolen together, the thief would have full access to both devices. • Currently smartwatches do not allow the same level of interaction as a smartphone; however it is only a matter of time before they do. -
Samsung, LG Launch Smartwatches with New Google Software 26 June 2014
Samsung, LG launch smartwatches with new Google software 26 June 2014 largest smartphone maker, respectively. A typical smartwatch allows users to make calls, receive texts and e-mails, take photos and access apps. G Watch opened Thursday for online pre-order in 12 countries including the United States, France and Japan before hitting stores in 27 more including Brazil and Russia in early July. Gear Live was also available for online pre-order Thursday. Visitors check out Samsung Gear Live watches during the Google I/O Developers Conference at Moscone Center in San Francisco, California, on June 25, 2014 South Korea's Samsung and LG on Thursday launched rival smartwatches powered by Google's new software as they jostle to lead an increasingly competitive market for wearable devices seen as the mobile industry's next growth booster. Samsung's "Gear Live" and LG's "G Watch"—both powered by Android Wear—are the first devices to adopt the new Google software specifically A LG G watch is seen on display during the Google I/O designed for wearables. Developers Conference at Moscone Center in San Francisco, California, on June 25, 2014 G Watch—LG's first smartwatch—is also equipped with Google's voice recognition service and can perform simple tasks including checking email, sending text messages and carrying out an online The launches come as global handset and software search at users' voice command. makers step up efforts to diversify from the saturated smartphone sector to wearable devices. The two devices cannot make phone calls by themselves but can be connected to many of the Samsung introduced its Android-based Galaxy latest Android-based smartphones, the South Gear smartwatch last year but it was given a Korean companies said in separate statements. -
Mobius Smatwatches.Key
Разработка для Smart Watches: Apple WatchKit, Android Wear и TizenOS Agenda History Tizen for Wearable Apple Watch Android Wear QA History First Smart Watches Samsung SPH-WP10 1999 IBM Linux Watch 2000 Microsoft SPOT 2003 IBM Linux Watches Today Tizen for Wearable • Display: 360x380; 320x320 • Hardware: 512MB, 4GB, 1Ghz dual-core • Sensors • Accelerometer • Gyroscope • Compass (optional) • Heart Rate monitor (optional) • Ambient Light (optional) • UV (optional) • Barometer (optional) • Camera (optional) • Input • Touch • Microphone • Connectivity: BLE • Devices: Samsung Gear 2, Gear S, Gear, Gear Neo • Compatibility: Samsung smartphones Tizen: Samsung Gear S Tizen for Wearable: Development Tizen for Wearable: Development Tizen IDE Tizen Emulator Apple Watch • Display: 390x312; 340x272 • Hardware: 256M, 1 (2)Gb; Apple S 1 • Sensors: • Accelerometer • Gyroscope • Heart Rate monitor • Barometer • Input • digital crown • force touch • touch • microphone • Compatibility: iOS 8.2 • Devices: 24 types Apple Watch Apple Watch Kit Apple Watch kit: Watch Sim Android Wear • Display: Round; Rect • 320x290; 320x320, 280x280 • Hardware: 512MB, 4GB, 1Ghz (TIOMAP, Qualcomm) • Sensors • Accelerometer • Gyroscope (optional) • Compass (optional) • Heart Rate monitor (optional) • Ambient Light (optional) • UV (optional) • Barometer (optional) • GPS (optional) • Input • Touch • Microphone • Connectivity: BLE • Devices: Moto 360, LG G Watch, Gear Live, ZenWatch, Sony Smartwatch 3, LG G Watch R • Compatibility: Android 4.3 Android Wear Android Wear IDE Android -
Electronic 3D Models Catalogue (On July 26, 2019)
Electronic 3D models Catalogue (on July 26, 2019) Acer 001 Acer Iconia Tab A510 002 Acer Liquid Z5 003 Acer Liquid S2 Red 004 Acer Liquid S2 Black 005 Acer Iconia Tab A3 White 006 Acer Iconia Tab A1-810 White 007 Acer Iconia W4 008 Acer Liquid E3 Black 009 Acer Liquid E3 Silver 010 Acer Iconia B1-720 Iron Gray 011 Acer Iconia B1-720 Red 012 Acer Iconia B1-720 White 013 Acer Liquid Z3 Rock Black 014 Acer Liquid Z3 Classic White 015 Acer Iconia One 7 B1-730 Black 016 Acer Iconia One 7 B1-730 Red 017 Acer Iconia One 7 B1-730 Yellow 018 Acer Iconia One 7 B1-730 Green 019 Acer Iconia One 7 B1-730 Pink 020 Acer Iconia One 7 B1-730 Orange 021 Acer Iconia One 7 B1-730 Purple 022 Acer Iconia One 7 B1-730 White 023 Acer Iconia One 7 B1-730 Blue 024 Acer Iconia One 7 B1-730 Cyan 025 Acer Aspire Switch 10 026 Acer Iconia Tab A1-810 Red 027 Acer Iconia Tab A1-810 Black 028 Acer Iconia A1-830 White 029 Acer Liquid Z4 White 030 Acer Liquid Z4 Black 031 Acer Liquid Z200 Essential White 032 Acer Liquid Z200 Titanium Black 033 Acer Liquid Z200 Fragrant Pink 034 Acer Liquid Z200 Sky Blue 035 Acer Liquid Z200 Sunshine Yellow 036 Acer Liquid Jade Black 037 Acer Liquid Jade Green 038 Acer Liquid Jade White 039 Acer Liquid Z500 Sandy Silver 040 Acer Liquid Z500 Aquamarine Green 041 Acer Liquid Z500 Titanium Black 042 Acer Iconia Tab 7 (A1-713) 043 Acer Iconia Tab 7 (A1-713HD) 044 Acer Liquid E700 Burgundy Red 045 Acer Liquid E700 Titan Black 046 Acer Iconia Tab 8 047 Acer Liquid X1 Graphite Black 048 Acer Liquid X1 Wine Red 049 Acer Iconia Tab 8 W 050 Acer -
Press Release 1/2 HERE for Samsung: Fresh Maps for New Samsung Gear S 29. Aug 2014 Berlin, Germany HERE, a Leader in Navigation
Press release 1/2 HERE for Samsung: Fresh maps for new Samsung Gear S 29. Aug 2014 Berlin, Germany HERE, a leader in navigation, mapping and location experiences, today announced that it has partnered with Samsung to bring its maps and location platform services to Tizen- powered smart devices by Samsung, including the newly- announced Samsung Gear S. With this partnership, HERE continues to broaden its reach to more people and businesses across screens and operating systems. On the Samsung Gear S, HERE is powering an application called Navigator, which offers turn-by-turn walk navigation and public transit routing. The app provides a complete stand-alone experience, including the ability to store map data locally on the device and use it offline for navigation, directions and search. To get the most out of Navigator on your Samsung Gear S, you can also pair it with a new app called HERE (beta) which HERE has developed for the Samsung Galaxy family of devices. With the app you can conveniently plan and calculate routes for walking and public transit on your phone and then send them to your smartwatch. The app will be made available for download from the Samsung GALAXY Apps store when the Samsung Gear S hits stores. Available at no cost to Samsung Galaxy users, HERE (beta) offers among other features: Offline Navigation: Turn-by-turn drive or walk guidance without an internet connection for almost 100 countries; Detailed maps for download to use offline with your Samsung Galaxy; Public transport maps and directions for more than 750 cities in more than 40 countries available without an internet connection and live traffic information for more than 40 countries. -
Wearable Haptic Systems for the Fingertip and the Hand: Taxonomy, Review, and Perspectives
IEEE TRANSACTIONS ON HAPTICS, VOL. XX, NO. X, XX 20XX 1 Wearable Haptic Systems for the Fingertip and the Hand: Taxonomy, Review, and Perspectives Claudio Pacchierotti, Member, IEEE, Stephen Sinclair, Member, IEEE, Massimiliano Solazzi, Member, IEEE, Antonio Frisoli, Member, IEEE, Vincent Hayward, Fellow, IEEE, Domenico Prattichizzo, Fellow, IEEE Abstract—In the last decade, we have witnessed a drastic change in the form factor of audio and vision technologies, from heavy and grounded machines to lightweight devices that naturally fit our bodies. However, only recently, haptic systems have started to be designed with wearability in mind. The wearability of haptic systems enables novel forms of communication, cooperation, and integration between humans and machines. Wearable haptic interfaces are capable of communicating with the human wearers during their interaction with the environment they share, in a natural and yet private way. This paper presents a taxonomy and review of wearable haptic systems for the fingertip and the hand, focusing on those systems directly addressing wearability challenges. The paper also discusses the main technological and design challenges for the development of wearable haptic interfaces, and it reports on the future perspectives of the field. Finally, the paper includes two tables summarizing the characteristics and features of the most representative wearable haptic systems for the fingertip and the hand. Index Terms—wearable haptics, fingertip haptics, hand exoskeletons, wearable devices, wearable interfaces, cutaneous force feedback, tactile force feedback, taxonomy, review F 1 INTRODUCTION Technology for touching remote objects has typically been the Apple Watch. They are easy and comfortable to wear, used in teleoperation. A robot is controlled as a slave in they often feature a touch screen, and they have functions the remote scenario and a haptic interface feeds back the similar to smartphones. -
Chapter 3 | Reliability and Validity of Ten Consumer Activity Trackers Depend on Walking Speed
University of Groningen The use of self-tracking technology for health Kooiman, Theresia Johanna Maria IMPORTANT NOTE: You are advised to consult the publisher's version (publisher's PDF) if you wish to cite from it. Please check the document version below. Document Version Publisher's PDF, also known as Version of record Publication date: 2018 Link to publication in University of Groningen/UMCG research database Citation for published version (APA): Kooiman, T. J. M. (2018). The use of self-tracking technology for health: Validity, adoption, and effectiveness. Rijksuniversiteit Groningen. Copyright Other than for strictly personal use, it is not permitted to download or to forward/distribute the text or part of it without the consent of the author(s) and/or copyright holder(s), unless the work is under an open content license (like Creative Commons). Take-down policy If you believe that this document breaches copyright please contact us providing details, and we will remove access to the work immediately and investigate your claim. Downloaded from the University of Groningen/UMCG research database (Pure): http://www.rug.nl/research/portal. For technical reasons the number of authors shown on this cover page is limited to 10 maximum. Download date: 26-09-2021 Chapter 3 | Reliability and validity of ten consumer activity trackers depend on walking speed Tryntsje Fokkema Thea J.M. Kooiman Wim P. Krijnen Cees P. van der Schans Martijn de Groot Medicine and Science in Sports and Exercise (2017) 49(4):793-800 Chapter 3 Abstract Introduction Purpose Consumer activity trackers are an inexpensive and feasible method for estimating daily To examine the test-retest reliability and validity of ten activity trackers for step counting at physical activity. -
Global Wearable Technologies: Devices, Applications, and Services Market 2016 – 2021 Sample/Excerpts ONLY – Not Full Report
Sample/Excerpts ONLY – Not Full Report Global Wearable Technologies: Devices, Applications, and Services Market 2016 – 2021 April 2016 Table of Content 1 EXECUTIVE SUMMARY 11 2 INTRODUCTION 12 2.1 DESIGN CONSTRAINTS 12 2.2 HIGH POWER CONSUMPTION 12 2.3 HIGH INITIAL COST 13 2.4 LACK OF DATA PRIVACY AND SECURITY 13 2.5 USAGE RESTRICTIONS 13 3 WEARABLE TECHNOLOGY DEVICES, APPLICATIONS, AND SERVICES 14 3.1 WEARABLE TECHNOLOGY IN PERSONAL HEALTH AND FITNESS MANAGEMENT 14 3.1.1 ACTIVITY TRACKERS 14 3.1.2 GPS MONITORING 15 3.1.3 OTHER WEARABLE DEVICES USED IN PERSONAL HEALTH AND FITNESS MANAGEMENT 15 3.1.4 WEARABLE DEVICES TO TRACK PERSONAL HEALTH FOR THE INSURANCE INDUSTRY 15 3.2 WEARABLE TECHNOLOGY IN THE PREVENTION, DIAGNOSIS, AND MANAGEMENT OF DISEASE 16 3.2.1 WHAT CAN WEARABLE TECHNOLOGY DELIVER IN HEALTHCARE? 16 3.2.2 NOVEL DEVICES FOR HEALTHCARE 17 3.2.3 GOOGLE GLASS IN HEALTHCARE 18 3.3 WEARABLE TECHNOLOGY IN SPORTS PERFORMANCE ENHANCEMENT 19 3.3.1 SPORT BRANDS AND WEARABLE TECHNOLOGY 19 3.3.2 WEARABLE TECHNOLOGY INTEGRATED INTO TEXTILES AND FOOTWEAR 20 3.3.3 WEARABLE DEVICES DESIGNED FOR PARTICULAR SPORTS 21 3.3.4 WEARABLE CHEMICAL SENSORS IN SPORT 21 3.3.5 WEARABLE TECHNOLOGY FOR CONCUSSION DETECTION 22 3.3.6 WEARABLE TECHNOLOGY FOR OBJECTIVE REFEREEING IN SPORT 22 4 WEARABLE TECHNOLOGY IN BUSINESS 23 4.1 LEADING CONSUMER INDUSTRY VERTICALS FOR WEARABLE TECH 23 Copyright © 2016 Mind Commerce All Rights Reserved Page 2 of 16 4.2 WEARABLE TECHNOLOGY IN THE WORKPLACE 25 4.2.1 WEARABLES IN MANUFACTURING 27 4.2.2 WEARABLES IN HEALTHCARE -
Healthcare Applications of Smart Watches a Systematic Review Tsung-Chien Lu1,2; Chia-Ming Fu1; Matthew Huei-Ming Ma1; Cheng-Chung Fang1; Anne M
Review 850 Healthcare Applications of Smart Watches A Systematic Review Tsung-Chien Lu1,2; Chia-Ming Fu1; Matthew Huei-Ming Ma1; Cheng-Chung Fang1; Anne M. Turner2,3 1Department of Emergency Medicine, National Taiwan University Hospital, Taipei, Taiwan; 2Division of Biomedical and Health Informatics, Department of Biomedical Informatics and Medical Education, School of Medi- cine, University of Washington, Seattle, WA, USA; 3Department of Health Services, School of Public Health, University of Washington, Seattle, WA, USA Keywords Other clinical informatics applications, Interfaces and usability, Healthcare, Wearable device, Smart watch Summary Objective: The aim of this systematic review is to synthesize research studies involving the use of smart watch devices for healthcare. Materials and Methods: The Preferred Reporting Items for Systematic Reviews and Meta-Ana- lyses (PRISMA) was chosen as the systematic review methodology. We searched PubMed, CINAHL Plus, EMBASE, ACM, and IEEE Xplore. In order to include ongoing clinical trials, we also searched ClinicalTrials.gov. Two investigators evaluated the retrieved articles for inclusion. Discrepancies be- tween investigators regarding article inclusion and extracted data were resolved through team dis- cussion. Results: 356 articles were screened and 24 were selected for review. The most common publi- cation venue was in conference proceedings (13, 54%). The majority of studies were published or presented in 2015 (19, 79%). We identified two registered clinical trials underway. A large propor- tion of the identified studies focused on applications involving health monitoring for the elderly (6, 25%). Five studies focused on patients with Parkinson’s disease and one on cardiac arrest. There were no studies which reported use of usability testing before implementation.