Satellite Communications Networks and Applications:
Creating Next-Generation Systems in Commercial and Government Environments
January 28-31, 2008
This course
provides an intensive state-of-the-art review of satellite communications
networks and applications from a system development perspective. Intended for
technical, operations, and business professionals as well as newcomers to
satellite technology, the course details the fundamentals, architecture, and
development of modern satellite networks, with emphasis on cutting-edge
broadcast, interactive, and mobile applications. Topics include satellite and
ground station principles, digital image and full-motion video for broadcast
distribution using the MPEG 2 and 4, DVB-S and S2 standards, and IP Video; Internet
Protocol (IP)-based data networks using Ku- and Ka-band Very Small Aperture
Terminals (VSATs) applied to fixed networks as well
as those having location flexibility; L- and S-band; mobile satellite services
and propagation (GEO and non-GEO); mobile broadcasting using Digital Audio
Radio Service (DARS) systems; and advanced broadband capabilities of Ka-band
satellite systems currently in use and under development. Emphasis is placed on
the proper selection of requirements, technologies, and their providers (space
and ground), and on the most effective ways to architect the associated
satellite networks.
Organized
and led by satellite industry expert Bruce Elbert, the course provides
fundamentals as well as a detailed review of current applications and
implementations; and a unique approach to the selection and development of
advanced satellite networks for use in commercial and government environments.
Optimization of IP data transfer over satellite and the design of
state-of-the-art direct to home broadcast networks will be covered by DC Palter
and Stephen Dulac, themselves noted innovators in these fields. The course is
appropriate for engineers and managers new to the field as well as experienced
professionals wishing to update and round out their understanding of current
systems and solutions.
UCLA Extension has
presented this highly successful short course since 1997. It is continuously
updated to reflect industry state of the art and innovations in network and
application development.
Course Materials
The text, The Satellite Communication Applications Handbook, Second Edition,
Bruce Elbert (Artech House, 2004); and a complete set
of updated lecture notes are distributed on the first day of the course. The
notes are for participants only and are not for sale.
Coordinator and Lecturer
Bruce R. Elbert, MSEE, MBA, President, Application Technology Strategy,
Inc., Thousand Oaks, California; and Adjunct Professor, College of Engineering,
University of Wisconsin, Madison. Mr. Elbert is a recognized satellite
communications expert and has been involved in the satellite and
telecommunications industries for over 30 years. He founded ATSI to assist
major private and public sector organizations that develop and operate
cutting-edge networks using satellite and other wireless technologies and
services. During 25 years with Hughes Space and Communications (now Boeing
Satellite Systems), he directed communications engineering of several major
satellite projects, including Palapa A,
LECTURERS
DC Palter, MBA, BS, President, Apposite
Technologies, Inc. Apposite Technologies is a leading manufacturer of satellite
and wide area network test and performance assessment equipment. Prior to
co-founding Apposite in 2005, DC spent ten years as Vice President at Mentat (acquired by Packeteer in
2004), a leading supplier of satellite IP networking optimization products.
This experience base gives him a unique understanding of the issues and
practical solutions involved with using IP over satellite. Mr. Palter
previously held various positions in marketing and engineering at Hughes
Electronics, Honeywell, and Kobe Steel.
Mr. Palter
is a frequent contributor of articles on network emulation, network
optimization, and IPv6 to leading networking, satellite, military, and telecommunications
publications. He has lectured on computer networking at UCLA, the Pentagon, and
a variety of industry conferences and seminars. Mr. Palter is the author of the
textbook, “Satellites and the Internet: Challenges and Solutions” (Satnews Publishers, 2003) as well as “Colloquial Kansai
Japanese” (Tuttle, 2006). He is co-author of three
Stephen P. Dulac, MSEE, MSEE, Senior Member of the
IEEE, Director of Engineering, DIRECTV, Inc., Senior Member, IEEE). Since 1997,
Mr. Dulac has been with DirecTV Inc.,
UCLA Faculty Representative
Kung Yao, PhD, Professor, Department of Electrical Engineering, Henry Samueli School of Engineering and Applied Science
Daily Schedule
Monday
Principles of Communications
Satellites and Networks (Bruce Elbert0
·
Architecture
of the space segment: GEO and non-GEO satellites and constellations, impact on
coverage and quality of service
·
Developing
requirements for applications and services using systems engineering
principles; commercial requirements for business use; government and military
requirements for mission success
·
Network
architecture: broadcast, interactive star and mesh topologies and their
application
·
Information
formats: speech, video, and image; the many forms of data and the associated
protocols
·
Introduction
to satellite system design: the communications payload (antenna and repeater)
and the spacecraft bus; satellite program planning (spacecraft and ground)
Engineering of Satellite Links
·
Frequency
spectrum and bandwidth: L and S band mobile links; C band, telecommunications
services; X band, government applications; Ku and Ka band, telecommunications
and broadcasting; millimeter wave and optical applications
·
Introduction
to line-of-sight propagation at microwave frequencies (1 to 30 GHz) on the
space-earth path; atmospheric and ionospheric
impairments; rain attenuation
·
Design
of the satellite link: introduction to assessing microwave link performance
using link budgets
·
Comparison
of digital modulation and encoding techniques: QPSK, OQPSK, and MSK,
bandwidth-efficient modulation--16QAM and 32 APSK; forward error correction
(FEC) using block, convolutional, concatenated, and
turbo codes
Principles of Multiple Access
Systems
·
Frequency
Division Multiple Access (FDMA) and Single Channel per Carrier (SCPC)
·
Time
Division Multiple Access (TDMA) and ALOHA
·
Code
Division Multiple Access (CDMA) using spread spectrum; hybrid modulation and
multiple access techniques
·
Comparison
and application of multiple access systems
Tuesday
·
Principles
of TCP/IP design: Windowing; Packet loss and retransmissions; Slow Start and
Congestion, TCP Extensions
·
Operation
and issues of TCP/IP over satellite: Bandwidth-delay product; Acknowledgement
and retransmissions; Congestions control
·
TCP/IP
acceleration and optimization techniques for satellite networks: TCP acceleration;
HTTP acceleration; CIFS acceleration; Compression and caching; QoS
·
Survey
of available standards-based and proprietary optimization solutions: SCPS; XTP;
Commercial WAN optimization products; Satellite specific optimization products;
Application specific optimization products; Solution section criteria
·
IP
multicast versus broadcast of video and multimedia traffic: IP Mulitcast fundamentals; Multicast deployment issues;
Solutions for reliable multicast
Digital Video Systems, MPEG 2 and 4,
and the DVB-S and S2 Standards (Stephen Dulac)
·
Requirements
for video transmission networks (broadcast and cable)
·
Overview
of digital DTH developments: comparison of systems (DIRECTV, DISH, etc.);
evolving features and services (local channels, DVRs,
interactivity); reference DTH system architecture
·
Compression
and multiplexing technologies: Motion Picture Experts Group (MPEG) family of
standards
·
Digital
Video Broadcasting standards: DVB-S concatenated Reed-Solomon and Viterbi convolutional coding,
DVB-S2 BCH and LDPC concatenated block codes
·
DTH
architecture, high-power and medium-power satellites to serve small receivers
and digital set-top boxes; microelectronics evolution
·
Security,
conditional access and service management systems; options for achieving interactivity
·
IPTV
standards, architecture and rollout
Wednesday (Bruce Elbert)
Ground Station Basics
·
Introduction
to ground stations and user terminals
·
Fixed,
transportable, and mobile (on-the-move) terminals
·
Integration
with space segment
·
Interfacing
the ground segment with terrestrial networks
Interactive VSAT Data Networks
·
Network
topology and implications: the star network versus full mesh architectures,
“Forward” and “Return” traffic patterns, and degrees of asymmetry
·
Star
networks: ALOHA, TDMA, SCPC, and CDMA variants
·
Interactive
two-way satellite service using the DVB Return Channel via Satellite (DVB-RCS)
standard
·
Central
ground station (hub) implementations: baseband equipment and interfaces to
terrestrial networks
·
Capacity
planning and sizing: collecting requirements for the VSAT network; protocol
support; estimating delay and response time
·
Discussion
and comparison of suppliers and technologies for VSATs
Thursday (Bruce Elbert0
Satellite
·
Historical
progression of mobile radio, cellular, and satellite mobile systems
·
“Big
LEO” mobile satellite systems: Iridium and GlobalStar
·
GEO
systems for satellite phone and data services: ACeS, Thruaya, Inmarsat 4, MSV
(Ancillary Terrestrial Component – ATC)
·
Review
of digital voice compression technology and performance
·
Modeling
the L and S band propagation environment
·
Foliage
and building penetration
·
Shadowing
(blockage), multipath, noise, and interference
Broadband and Multimedia Systems
·
Broadband
and multimedia for consumer, business-to-business services and government use:
characteristics, requirements for interactivity
·
Ka-band
spectrum suitability and availability; propagation considerations, rain
attenuation, system noise temperature increase and de-polarization; typical
link budgets
·
Broadband
satellite design: on-board processing for data regeneration and traffic
switching; application of multibeam antenna systems
and inter-satellite links (millimeter wave and optical/laser)
Application and Business Planning
Considerations
·
Selecting
the most appropriate satellite and transponder capacity; risk mitigation and
avoidance as related to the space segment; source selection tactics and
strategies
·
Case
study of a complete satellite network, based on requirements to be developed in
class
For more information call the UCLA Extension Engineering
Short Course Program Office at (310) 825-3344; fax (310) 206-2815.
Dates January 28-31 (Monday through Thursday)
Time 8
am-5 pm (subject to adjustment after the first class meeting)
Location Room G-33 West,
Reg#
Course No. Engineering 881.237
Units 2.4 CEU (24 hours of instruction)
Fee $1,995,
includes course materials
$100 nonrefundable; no refund after January 17, 2008; however, course fee (less
$100) may be applied toward another short course enrollment.