2009 International Conference on New Trends in Information and Service Science Haosheng Huang1, Georg Gartner, Manuela Schmidt, and Yan Li1 Speaker: Chun-Hung.

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Presentation transcript:

2009 International Conference on New Trends in Information and Service Science Haosheng Huang1, Georg Gartner, Manuela Schmidt, and Yan Li1 Speaker: Chun-Hung Wang Date:

Outline 1、INTRODUCTION 2、SMART ENVIRONMENT A. Indoor Positioning B. Wireless Infrastructure Module 3、UBIQUITOUS INDOOR NAVIGATION IN A SMART ENVIRONMENT A. Interaction and Annotation B. User Tracking C. Context-Awareness 4、CONCLUSIONS AND FUTURE WORK 2

1 、 Introduction Mobile navigation service is one of the most important LBS(Location Based Services)applications. It aims at providing wayfinding guidancein an unfamiliar environment. Recently, the increasing ubiquity of personal mobile devices (such as cell phones and PDAs) triggers a move towards mobile pedestrian navigation systems.However, most of the current pedestrian navigation systems are designed to assist outdoor navigation.Also people tend to lose orientation a lot easier within buildings than outdoor.Indoor navigation systems are designed to meet this need. 3

2 、 SMART ENVIRONMENT A.Indoor Positioning There exist numerous different positioning techniques that vary greatly in terms of accuracy, costs and used technology. we choose a Bluetooth-based beacon positioning solution, which uses Cell of Original (CoO) as signal metric, proximity as positioning algorithm, and adopts passive position calculation. Bluetooth beacons are placed in different places actively broadcasting their unique IDs. 4

2 、 SMART ENVIRONMENT A.Indoor Positioning Mobile devices passively receive the broadcast message when they are within the range of a beacon. After receiving a beacon ID, mobile devices look up the current position from a mapping table.This mapping table can be cached in the mobile devices or accessed from a server. After choosing the positioning technique, we have to consider the sensor placement which tries to optimize the placement to balance the signal coverage and development cost.And then, in order to avoid overlapping, we adjust the range for every beacon. 5

2 、 SMART ENVIRONMENT B.Wireless Infrastructure Module we establish a wireless infrastructure based on WiFi technology because of its highly availability, its high data rate, and its wide coverage range. We also introduce a center server to the smart environment. The center server is responsible for providing indoor navigation services, gathering and recording real time messages (such as users’ moving track, user generated content, etc). Fig. 1 depicts the layout of our smart environment. 6

2 、 SMART ENVIRONMENT 7

3 、 UBIQUITOUS INDOOR NAVIGATION IN A SMART ENVIRONMENT A. Interaction and Annotation One of the great advantages of ubiquitous systems is the potentiality to directly interact with the environment. Similar to the notion of Web- as-participation-platform in Web 2.0. Our smart environment allows users to do more than just retrieve information (receiving navigation instructions).They are encouraged to add comments, feedbacks, or annotations to the smart environment while they use it. 8

3 、 UBIQUITOUS INDOOR NAVIGATION IN A SMART ENVIRONMENT A. Interaction and Annotation During navigation in this smart environment, users can annotate their personal preferences, comments or experiences to different landmarks and decision points (areas),e.g., users may annotate a comment to the navigation instructions provided at the current decision point(“The navigation instruction here is really unclear, I can’t understand it”).In our smart environment, this message can be text,photo, image, etc. Users can also specify the target and the duration of the message, for example, this message is only showed to Mary,and is only available on April Fools' Day. In order to protect the privacy, users can send the messages anonymously. 9

3 、 UBIQUITOUS INDOOR NAVIGATION IN A SMART ENVIRONMENT A. Interaction and Annotation Users submit a comment message to express their feelings, experiences, and feedbacks to a place, or navigation instructions provided at this place, for example,“This place is dirty, I don’t like it”, “The shop here always has some very nice clothes.” Management messages can only be sent by authorized persons, such as staff members of our institute, to manage the smart environment, for example,“this corridor” will be “blocked” on “April 1st” which means that when providing navigation instructions, the system should avoid guiding the navigator crossing that corridor at that time. 10

3 、 UBIQUITOUS INDOOR NAVIGATION IN A SMART ENVIRONMENT A. Interaction and Annotation These kinds of user generated content benefit the indoor navigation in the following ways: 1.Enhance users with a new navigation experience 2.Real time update 3.Qualitative evaluation of the system 11

3 、 UBIQUITOUS INDOOR NAVIGATION IN A SMART ENVIRONMENT B. User Tracking We also design a module to record users’ wayfinding behaviors in our smart environment. The system also records users’ destinations. This information can be used to classify different users and tasks. This module provides the following benefits for indoor navigation: 1.Quantitative evaluation of the system: 2.Smart wayfinding support (collaborative filtering): 12

3 、 UBIQUITOUS INDOOR NAVIGATION IN A SMART ENVIRONMENT B. User Tracking After applying the notion of Item-based collaborative filtering, we draw some interesting wayfinding patterns for different user groups, such as : 1.Route based pattern 2.Destination based pattern When applying these two patterns for indoor navigation, the system can provide smart wayfinding support to users. 13

3 、 UBIQUITOUS INDOOR NAVIGATION IN A SMART ENVIRONMENT C. Context-Awareness Mobile indoor navigation should be context-aware, and adapt to the dynamic changing environment. Based on the above two modules and the smart environment, our indoor navigation system provide the following context-aware adaptations. 1.Context-aware adaptation for software architecture We can classify navigation systems into services-side (connecting) and client-side (local caching) solutions according to where the data (spatial data and route instructions) is stored and the calculation (mainly route selection) is executed. 14

3 、 UBIQUITOUS INDOOR NAVIGATION IN A SMART ENVIRONMENT C. Context-Awareness 2.Context-aware adaptation for the destination selection Usually, people don’t always stay in one place (for example,at their desks in the office), e.g., they may move to another room for a meeting. Based on the tracking module, we can get the current position of the target person from the smart environment, and guide the user to the target person’s current position.If the target person’s current position can not be provided by the smart environment (for some privacy reason), the indoor navigation system will guide the user to the usual place (for example office). 15

3 、 UBIQUITOUS INDOOR NAVIGATION IN A SMART ENVIRONMENT C. Context-Awareness 3.Context-aware adaptation for route selection: For navigation, there are different kinds of “best” routes: fastest, shortest, least traffic, most scenic, etc. In fact, the “best” route should fit the current context. we may get the real time availability of the smart menvironment, and calculate the route according to the current “traffic information”. 16

4、CONCLUSIONS AND FUTURE WORK From the above discussions, we can draw the conclusion that by introducing the notion of Smart environment and Ambient Intelligent,a smart ubiquitous indoor navigation system can be built such that based on “the real-time information gathered and the historical data accumulated”, an adaptive smart wayfinding support combined with new navigation experiences can be provided to users. This will enhance users’ navigation experiences,and improve the performance of navigation. Our next step is to recruit some people to test and evaluate our smart environment. Furthermore, we will also focus on applying the notions of User Generated Content and Collaborative Filtering to design our ubiquitous indoor navigation services. 17