(1.8 CEUs)
Who Should
Attend
The course
is intended for video engineers who will have to use the technology,
not compression designers. The mathematics of compression techniques
are discussed briefly, but the focus of the course is on providing a
qualitative understanding of the processes involved rather than
their detailed analysis. If you are looking for real world answers
and direction toward solutions, this course is for you.
Instructor
Dr. Jordan Isailovic , scientist, JRI Technology and
California State University Long Beach. and
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Course
Outline
Day 1
Introduction
Description of Course
Structure and Content
Course Objectives
Standards Overview
- Standard TV - Analog:
Basic Concepts
Standard TV - Digital:
Component vs. Composite
- Theoretical Base for
Compression/Decompression
Need for Data
Compression
Information Theory
Concepts
Visual Psychophysics
Predictive Coding
Motion Estimation
Transform
Coding
Subband Coding
Vector Quantization,
etc.
- JPEG STANDARD
- p*64 STANDARD
- MPEG-1 STANDARD
Functional Block
Diagrams
Syntax and Semantics
Video Compression
Audio Compression
System Layer
Example: MUX for CD
Day 2
MPEG-2 Standard
- Video Compression
- Audio Compression
- MPEG-1-2 Audio and AAC vs. AC-3
- System Layer
- Program and Transport Streams
- Comparison with MPEG-1
TRANSPORT STREAM: END-TO-END DISTRIBUTION
- Digital Data in TV channel
TRANSPORT STREAM: END-TO-END DISTRIBUTION
- Day 3
DVB
Satellite and Cable TV Distribution
HDTV
SYSTEM and SERVICE
INFORMATION (SSI)
PSIP Fundamentals
Critical Design Issues
DSP vs. Dedicated
MPEG-1-2 IC's
Hardware vs. Software
Solutions
Clock Recovery and
Synchronization Issues
Sampling Strategies and
Structures
CCIR-601 4:2:2 and
4:2:0; Interlaced/Noninterlaced
VLSI Implementation
- MPEG Processing
Architecture and Implementation
- Architectural
choices
Format
Conversion
- FUTURE TRENDS and
APPLICATIONS
What is Available –
Current Products
Comparison - Present and Future
Future A/V Standards
Course
includes:
Three days of
instruction (1.8 CEUs)
Extensive set of notes,
which cover all the visuals used in the course
Pre-course preparatory
homeworks
Course Diploma issued by
instructor
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Course
Summary
There has
been a quantum shift, imperceptible to the viewer, in the technology
used to bring television into the home: the winning choice is
digital technology. Digital TV (DTV) is the umbrella term used to
describe the new digital television system adopted by the FCC in
December 1996; DTV is a technology, and HDTV is just one subset of
the DTV.
The objective
of the course is to bring the participants gracefully through all
the DTV structure, features, and theory...then give them more
practical information on subjects such as decoding issues, display
problems, conversion, baseband data stream handling, etc. The course
will also provide an in depth and structured introduction to the
technology, its uses, opportunities/possibilities, and limitations.
Digital TV is not simply the numerical equivalent to traditional
analog television: the issues of becoming digital are covered, as
well as the relevant compression technologies.
Participants will enhance there knowledge on the
principles of transmission, as well as problems and opportunities of
data delivery through terrestrial, satellite and cable networks.
Insight is also provided on the receiver issues and how they will
handle the format conversion as well as conditional access.
Participants will gain a point-by-point understanding of the DTV
layered architecture, DTV transmission requirements, multiplexing,
MPEG switching, audio components, compatibility with today’s
analog TV, and more.
Course
Objectives
1.
Provide background for understanding the DTV standards
2.
Discuss enabling technologies
3.
Review the fundamentals of underlying modulation techniques
4.
Discuss specifics of ATSC, DVB-B-C Systems
5.
Discuss critical design issues
6.
Discuss technical aspects related to copy protection
7.
Discuss basic problems in the system integration
8. Discuss
opportunities and obstacles
Q & As:
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