|
Aims and Goals of the Book
The aim of this
book is to fill the gap in current literature on the synergetic
approaches integrating advanced data management and wireless
networking techniques. In particular, we will systematically
summarize existing network aware sensor data management methods,
and elaborate on a comprehensive network-aware taxonomy for
efficient interrogation of data intensive wireless sensor
environments.
The book is planned to be self-contained and can be used both as
an introduction to the subject for students and researchers
entering this area, as well as a reference for experienced
professionals.
Table of Contents with a rough page estimate
Chapter 1: Introduction (20 pages)
This chapter will introduce problem of
efficient query processing in resource constrained data
intensive wireless sensor environments. The intentions of
Chapters 2-4 will be to provide a tutorial background with
sufficient breadth and depth for understanding the rest of the
book.
Chapter 2: Wireless Sensor Devices
(30 pages)
This chapter will consider basic
organization and key technical characteristics of sensor
devices, and elaborate on several specific and notably different
examples of sensor nodes. We will discuss the state of the art,
commercially available products as well as expected capabilities
of devices in the future.
Chapter 3: Wireless Sensor Networks –
Physical and MAC Layers (40 pages)
This chapter will provide the theoretical
essentials of the lower layers of sensor networks. We will
discuss modulation (FSK all the way to UWB), radio propagation
(path-loss and fading) and battery performance models in general
as they are related to sensor networks. We will also consider
the specific physical and MAC layer schemes in sensor network
standards such as 802.15.4.
Chapter 4: Wireless Sensor Networks –
Networking and Higher Layers (40 pages)
This chapter introduces service
establishment, routing, topology control and data aggregation
aspects of wireless sensor networks.
Chapter 5: Data Intensive Sensor
Applications (40 pages)
This chapter will review and analyze
specific data management requirements for Data-Intensive Sensor
Applications. It will cover notable cases studies in DISA, such
as non-intrusive Structural Health Monitoring and consider their
impact on the high utility of the Network Aware Sensor Data
Management.
Chapter 6: Taxonomy of Network Aware
Sensor Data Management (25 pages)
This chapter will introduce basic taxonomy
of Network Aware Sensor Data Management in terms of the degree
to which the query processing layer utilizes information about
underlying sensor network. It ranges from application-driven
network interrogation patterns to network-aware query
optimization that utilizes information about lower network
layers.
Chapter 7: Application Awareness and
Query-Driven Routing (40)
In this chapter, the fundamental questions of building a query
layer on top of a network of sensors will be examined in detail.
The emphasis is on energy savings and its effects on quality of
service (QoS), such as network lifetime and coverage, and on
quality of data (QoD), such as relative error, when acquiring
data and processing queries.
Chapter 8: Collision-Aware Sensor Data
Delivery (40 pages)
Packet collisions and retransmissions
causes considerable performance degradation of data intensive
sensornets. This chapter consider collision-aware
data delivery that addresses above problem utilizing trade-offs
between sensor query processing and Media Access Control (MAC)
layer.
Chapter 9: Network-Aware Query
Optimization (40 pages)
The
alternative solutions in Network-Aware Data Management become
non-obvious as the scale and topological complexity of
sensornets increase. In this chapter we consider Network
Aware Query Optimization, - a group of Network Aware Data
Management techniques that apply database-like query
optimization to utilize the information about how the lower
network layers operate in the query processing.
Chapter 10: Mobility Awareness (35
pages)
This chapter will explore how Network-Aware
Data Management Techniques facilitate data delivery in mobile
sensor networks. In general, mobile sensor nodes consume extra
energy and introduce extra data processing delay. However, by
reducing the transmission range and data stream sizes, they are
also capable of reducing the overall query time and energy
consumption. We will consider different techniques (e.g.,
multi-criteria optimization) to capture the mobility trade-offs.
Chapter 11: Conclusion: Prospects of
Network Aware Sensor Data Management (20 pages)
This chapter will compare the considered techniques
with existing wireless network standards and extend the expected utility of Network Aware Sensor Data
Management to future advanced wireless sensor environments
(e.g., ultra-wide band networks)
Please, email your comments to
vladimir@sis.pitt.edu
|