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Digital Television and the Allure of Auctions: the Birth and Stillbirth of DTV Legislation
Federal Communications Law Journal Volume 49 Issue 3 Article 2 4-1997 Digital Television and the Allure of Auctions: The Birth and Stillbirth of DTV Legislation Ellen P. Goodman Covington & Burling Follow this and additional works at: https://www.repository.law.indiana.edu/fclj Part of the Communications Law Commons, and the Legislation Commons Recommended Citation Goodman, Ellen P. (1997) "Digital Television and the Allure of Auctions: The Birth and Stillbirth of DTV Legislation," Federal Communications Law Journal: Vol. 49 : Iss. 3 , Article 2. Available at: https://www.repository.law.indiana.edu/fclj/vol49/iss3/2 This Article is brought to you for free and open access by the Law School Journals at Digital Repository @ Maurer Law. It has been accepted for inclusion in Federal Communications Law Journal by an authorized editor of Digital Repository @ Maurer Law. For more information, please contact [email protected]. Digital Television and the Allure of Auctions: The Birth and Stillbirth of DTV Legislation Ellen P. Goodman* I. INTRODUCTION ................................... 517 II. ORIGINS OF THE DTV PRovIsIoNs OF THE 1996 ACT .... 519 A. The Regulatory Process ..................... 519 B. The FirstBills ............................ 525 1. The Commerce Committee Bills ............. 526 2. Budget Actions ......................... 533 C. The Passage of the 1996Act .................. 537 Ill. THE AFTERMATH OF THE 1996 ACT ................ 538 A. Setting the Stage .......................... 538 B. The CongressionalHearings .................. 542 IV. CONCLUSION ................................ 546 I. INTRODUCTION President Clinton signed into law the Telecommunications Act of 1996 (1996 Act or the Act) on February 8, 1996.1 The pen he used to sign the Act was also used by President Eisenhower to create the federal highway system in 1957 and was later given to Senator Albert Gore, Sr., the father of the highway legislation. -
Digital Television Systems
This page intentionally left blank Digital Television Systems Digital television is a multibillion-dollar industry with commercial systems now being deployed worldwide. In this concise yet detailed guide, you will learn about the standards that apply to fixed-line and mobile digital television, as well as the underlying principles involved, such as signal analysis, modulation techniques, and source and channel coding. The digital television standards, including the MPEG family, ATSC, DVB, ISDTV, DTMB, and ISDB, are presented toaid understanding ofnew systems in the market and reveal the variations between different systems used throughout the world. Discussions of source and channel coding then provide the essential knowledge needed for designing reliable new systems.Throughout the book the theory is supported by over 200 figures and tables, whilst an extensive glossary defines practical terminology.Additional background features, including Fourier analysis, probability and stochastic processes, tables of Fourier and Hilbert transforms, and radiofrequency tables, are presented in the book’s useful appendices. This is an ideal reference for practitioners in the field of digital television. It will alsoappeal tograduate students and researchers in electrical engineering and computer science, and can be used as a textbook for graduate courses on digital television systems. Marcelo S. Alencar is Chair Professor in the Department of Electrical Engineering, Federal University of Campina Grande, Brazil. With over 29 years of teaching and research experience, he has published eight technical books and more than 200 scientific papers. He is Founder and President of the Institute for Advanced Studies in Communications (Iecom) and has consulted for several companies and R&D agencies. -
Research on the Safe Broadcasting of Television Program
MATEC Web of Conferences 63, 04002 (2016) DOI: 10.1051/matecconf/20166304002 MMME 2016 Research on the Safe Broadcasting of Television Program Jin Bao SONG1,a, Jin Hong SONG2 and Jian Ping CHAI1 1Information Engineering School, Communication University of China, Beijing, China 2Shandong Gold Mining Jiaojia Gold Mine (Laizhou) co.,LTD Abstract. The existing way of broadcasting and television monitoring has a lot of problems in China. On the basis of the signal technical indicators monitoring in the present broadcasting and television monitoring system, this paper further extends the function of the monitoring network in order to broaden the services of monitoring business and improve the effect and efficiency of monitoring work. The problem of identifying video content and channel in television and related electronic media is conquered at a low cost implementation way and the flexible technology mechanism. The coverage for video content and identification of the channel is expanded. The informative broadcast entries are generated after a series of video processing. The value of the numerous broadcast data is deeply excavated by using big data processing in order to realize a comprehensive, objective and accurate information monitoring for the safe broadcasting of television program. 1 Introduction paper is the development of cheap monitoring hardware devices which can be widely deployed to the village, so The existing way of broadcasting and television the actual situation of the user terminal broadcasting can monitoring has a lot of problems in China. Firstly, the be monitored by the administration of radio, film and existing way of monitoring is the front-end monitoring television. -
Are You Ready for Digital TV? 20 January 2009
Are you ready for digital TV? 20 January 2009 (PhysOrg.com) -- If everything goes as planned, on Q: If I install a digital converter box to my Feb. 17 the long-awaited switch from analog to television set, what will I get? digital broadcasting will take place and millions of DS: Provided that the digital converter box has a analog television sets across the nation will go reasonably good antenna, you would be able to black. Temple University electrical and computer receive the over-the-air digital signals that the engineering Professor Dennis Silage, an expert in broadcasters are transmitting; basically, your local both analog and digital communications, has television stations. You have to hook the converter answered some questions about this digital TV box up to an antenna and even a simple a ‘rabbit transition and what it will mean for consumers. ear’ antenna may work for you. We’re going back to the future, if you remember when you used to Q: Why are we switching from analog? have rabbit ear antennas on your TV and you had DS: Analog is a 60-plus-year-old technology that to play around with them to get the best picture. has basically lasted the test of time, but doesn’t Now, because of the digital conversion, your local really allow more advanced services, such as television stations also have subsidiary channels additional channels and information using the that would be very interesting to see. They may existing the broadcast spectrum. It’s not as have as many as three subsidiary channels. -
Comparing Digital Television in Transition Between Japan and the U.S
A Service of Leibniz-Informationszentrum econstor Wirtschaft Leibniz Information Centre Make Your Publications Visible. zbw for Economics Kanayama, Tsutomu Conference Paper Broadcasting Policy and Regulation in transition before dawn of a New Paradigm: Comparing Digital Television in Transition between Japan and the U.S. 14th Asia-Pacific Regional Conference of the International Telecommunications Society (ITS): "Mapping ICT into Transformation for the Next Information Society", Kyoto, Japan, 24th-27th June, 2017 Provided in Cooperation with: International Telecommunications Society (ITS) Suggested Citation: Kanayama, Tsutomu (2017) : Broadcasting Policy and Regulation in transition before dawn of a New Paradigm: Comparing Digital Television in Transition between Japan and the U.S., 14th Asia-Pacific Regional Conference of the International Telecommunications Society (ITS): "Mapping ICT into Transformation for the Next Information Society", Kyoto, Japan, 24th-27th June, 2017, International Telecommunications Society (ITS), Calgary This Version is available at: http://hdl.handle.net/10419/168497 Standard-Nutzungsbedingungen: Terms of use: Die Dokumente auf EconStor dürfen zu eigenen wissenschaftlichen Documents in EconStor may be saved and copied for your Zwecken und zum Privatgebrauch gespeichert und kopiert werden. personal and scholarly purposes. Sie dürfen die Dokumente nicht für öffentliche oder kommerzielle You are not to copy documents for public or commercial Zwecke vervielfältigen, öffentlich ausstellen, öffentlich zugänglich -
Improved Television Systems: NTSC and Beyond
• Improved Television Systems: NTSC and Beyond By William F. Schreiber After a discussion ofthe limits to received image quality in NTSC and a excellent results. Demonstrations review of various proposals for improvement, it is concluded that the have been made showing good motion current system is capable ofsignificant increase in spatial and temporal rendition with very few frames per resolution. and that most of these improvements can be made in a second,2 elimination of interline flick er by up-conversion, 3 and improved compatible manner. Newly designed systems,for the sake ofmaximum separation of luminance and chromi utilization of channel capacity. should use many of the techniques nance by means of comb tilters. ~ proposedfor improving NTSC. such as high-rate cameras and displays, No doubt the most important ele but should use the component. rather than composite, technique for ment in creating interest in this sub color multiplexing. A preference is expressed for noncompatible new ject was the demonstration of the Jap systems, both for increased design flexibility and on the basis oflikely anese high-definition television consumer behaL'ior. Some sample systems are described that achieve system in 1981, a development that very high quality in the present 6-MHz channels, full "HDTV" at the took more than ten years.5 Orches CCIR rate of 216 Mbits/sec, or "better-than-35mm" at about 500 trated by NHK, with contributions Mbits/sec. Possibilities for even higher efficiency using motion compen from many Japanese companies, im sation are described. ages have been produced that are comparable to 35mm theater quality. -
Fcc Written Response to the Gao Report on Dtv Table of Contents
FCC WRITTEN RESPONSE TO THE GAO REPORT ON DTV TABLE OF CONTENTS I. TECHNICAL GOALS 1. Develop Technical Standard for Digital Broadcast Operations……………………… 1 2. Pre-Transition Channel Assignments/Allotments……………………………………. 5 3. Construction of Pre-Transition DTV Facilities……………………………………… 10 4. Transition Broadcast Stations to Final Digital Operations………………………….. 16 5. Facilitate the production of set top boxes and other devices that can receive digital broadcast signals in connection with subscription services………………….. 24 6. Facilitate the production of television sets and other devices that can receive digital broadcast signals……………………………………………………………… 29 II. POLICY GOALS 1. Protect MVPD Subscribers in their Ability to Continue Watching their Local Broadcast Stations After the Digital Transition……………………………….. 37 2. Maximize Consumer Benefits of the Digital Transition……………………………... 42 3. Educate consumers about the DTV transition……………………………………….. 48 4. Identify public interest opportunities afforded by digital transition…………………. 53 III. CONSUMER OUTREACH GOALS 1. Prepare and Distribute Publications to Consumers and News Media………………. 59 2. Participate in Events and Conferences……………………………………………… 60 3. Coordinate with Federal, State and local Entities and Community Stakeholders…… 62 4. Utilize the Commission’s Advisory Committees to Help Identify Effective Strategies for Promoting Consumer Awareness…………………………………….. 63 5. Maintain and Expand Information and Resources Available via the Internet………. 63 IV. OTHER CRITICAL ELEMENTS 1. Transition TV stations in the cross-border areas from analog to digital broadcasting by February 17, 2009………………………………………………………………… 70 2. Promote Consumer Awareness of NTIA’s Digital-to-Analog Converter Box Coupon Program………………………………………………………………………72 I. TECHNICAL GOALS General Overview of Technical Goals: One of the most important responsibilities of the Commission, with respect to the nation’s transition to digital television, has been to shepherd the transformation of television stations from analog broadcasting to digital broadcasting. -
Digital Television: Has the Revolution Stalled?
iBRIEF / Media & Communications Cite as 2001 Duke L. & Tech. Rev. 0014 3/26/2001 April 26, 2001 DIGITAL TELEVISION: HAS THE REVOLUTION STALLED? When digital television technology first hit the scene it garnered great excitement, with its promise of movie theater picture and sound on a fraction of the bandwidth of analog. A plan was implemented to transition from the current analog broadcasting system to a digital system effective December 23, 2006. As we reach the half point of this plan, the furor begins to die as the realities of the difficult change sink in. The History of Digital Television ¶1 The technological possibilities of digital television are immense.1 It could provide the broadcast of theater quality sound and picture via cable, antenna or satellite; multicasting which enables the transmission of multiple programs within one digital signal; and signals for data communications that could potentially bring to the TV the capabilities of web pages and interactive compact discs.2 ¶2 The motivation behind the development of digital television technologies can be traced back to the history of analog broadcasting. As television became a viable medium in the United States at the start of the Second World War, the establishment of technical standards in transmission and reception equipment was of vital importance. In 1940, the National Television Systems Committee (NTSC) met to determine guidelines for the transmission and reception of television signals. With the US leading the charge into early broadcasting in the late 1940s, the technology available at the time became entrenched and remains a part of our lives today, with the familiar 525-line low-resolution screens that bring us the evening news. -
Identifying and Locating Cable TV Interference Application Note
Application Note Identifying and Locating Cable TV Interference A Primer for Public Safety Engineers and Cellular Operators Introduction In the early days of cable TV systems, the signals being sent over the cables were the same signals that were transmitted over the air. This minimized the extent of interference problems. Problems in those days would often manifest as ghosting and would look like a multipath reflection. However as cable TV systems offered more and more TV channels and other services, signals transmitted over the cables covered virtually the entire spectrum from 7 MHz to over 1 GHz. See table 1. There are many different services that operate over the air in that frequency range. All those services can be subject to interfering signals radiating from cable TV systems and in turn over the air signals can leak into the cable TV plant and cause interference. As cable TV systems began to expand the frequency range in the cable, interference started to be experienced by aeronautical users in the 100 to 140 MHz range and amateur radio operators in the 50 MHz to 54 MHz, 144 to 148 MHz, 220 to 225 MHz, and the 440 to 450 MHz bands. First responders could also experience interference when operating near a leaky cable plant. Problems in the 700 and 850 MHz cellular bands emerged as the frequencies in the cables were pushed higher and higher to provide more channels for cable TV customers. As the 600 MHz frequency range begins to be used by cellular operators, problems are likely to be seen there as well. -
Preparing for the Broadcast Analog Television Turn-Off: How to Keep Cable Subscribers’ Tvs from Going Dark
White Paper Preparing for the Broadcast Analog Television Turn-Off: How to Keep Cable Subscribers’ TVs from Going Dark Learn about the NTSC-to-ATSC converter/ receiver and how TANDBERG Television’s RX8320 ATSC Broadcast Receiver solves the Analog Turn-Off issues discussed in this paper Matthew Goldman Vice President of Technology TANDBERG Television, part of the Ericsson Group First presented at SCTE Cable-Tec Expo® 2008 in Philadelphia, Pennsylvania © TANDBERG Television 2008. All rights reserved. Table of Contents 1. The “Great Analog Television Turn-Off” ..............................................................................................3 1.1 Receiving Over-the-Air TV Transmissions ..............................................................................3 1.2 ATSC DTV to NTSC Analog Conversion ...................................................................................5 2. Video Down-Conversion .........................................................................................................................5 2.1 Active Format Description ..........................................................................................................8 2.2 Bar Data .............................................................................................................................................9 2.3 Color Space Correction ................................................................................................................9 3. Audio Processing .......................................................................................................................................9 -
Analog Video and the Composite Video
Basics of Video Multimedia Systems (Module 1 Lesson 3) Summary: Sources: H Types of Video H My research notes H H Analog vs. Digital Video Conventional Analog Television Dr. Kelin J. Kuhn H Digital Video http://www.ee.washington.edu/conselec/CE/kuhn /ntsc/95x4.htm m Chroma Sub-sampling H Dr. Ze-Nian Li’s course m HDTV std. material at: H Computer Video http://www.cs.sfu.ca/CourseCentral/365/li/ formats Types of Video Signals H Component video -- each primary is sent as a separate video signal. m The primaries can either be RGB or a luminance-chrominance transformation of them (e.g., YIQ, YUV). m Best color reproduction m Requires more bandwidth and good synchronization of the three components H Composite video -- color (chrominance) and luminance signals are mixed into a single carrier wave. m Some interference between the two signals is inevitable. H S-Video (Separated video, e.g., in S-VHS) -- a compromise between component analog video and the composite video. It uses two lines, one for luminance and another for composite chrominance signal. Analog Video Analog video is represented as a continuous (time varying) signal; Digital video is represented as a sequence of digital images NTSC Video PAL (SECAM) Video m 525 scan lines per frame, 30 fps m 625 scan lines per frame, 25 (33.37 msec/frame). frames per second (40 m Interlaced, each frame is divided msec/frame) into 2 fields, 262.5 lines/field m Interlaced, each frame is divided m 20 lines reserved for control into 2 fields, 312.5 lines/field information at the beginning of m Color representation: each field m Uses YUV color model m So a maximum of 485 lines of visible data • Laserdisc and S-VHS have actual resolution of ~420 lines • Ordinary TV -- ~320 lines • Each line takes 63.5 microseconds to scan. -
Digital Television: an Overview
Order Code RL31260 CRS Report for Congress Received through the CRS Web Digital Television: An Overview Updated June 22, 2005 Lennard G. Kruger Specialist in Science and Technology Resources, Science, and Industry Division Congressional Research Service ˜ The Library of Congress Digital Television: An Overview Summary Digital television (DTV) is a new television service representing the most significant development in television technology since the advent of color television in the 1950s. DTV can provide sharper pictures, a wider screen, CD-quality sound, better color rendition, and other new services currently being developed. The nationwide deployment of digital television is a complex and multifaceted enterprise. A successful deployment requires: the development by content providers of compelling digital programming; the delivery of digital signals to consumers by broadcast television stations, as well as cable and satellite television systems; and the widespread purchase and adoption by consumers of digital television equipment. The Telecommunications Act of 1996 (P.L. 104-104) provided that initial eligibility for any DTV licenses issued by the Federal Communications Commission (FCC) should be limited to existing broadcasters. Because DTV signals cannot be received through the existing analog television broadcasting system, the FCC decided to phase in DTV over a period of years, so that consumers would not have to immediately purchase new digital television sets or converters. Thus, broadcasters were given new spectrum for digital signals, while retaining their existing spectrum for analog transmission so that they can simultaneously transmit analog and digital signals to their broadcasting market areas. Congress and the FCC set a target date of December 31, 2006 for broadcasters to cease broadcasting their analog signals and return their existing analog television spectrum to be auctioned for commercial services (such as broadband) or used for public safety communications.