ESSAYFULBRIGHT REFLECTIONSChristopher Harper, Ithaca Collegecharper@ithaca.eduMy 8-year-old daughter Cecylia looked out from the Polish train just south of Gdansk.I had tried to explain to her why World War II started in the northern port city, knownas Danzig to Germans. I hadn’t succeeded so far. Then I asked her to look to the East,and I asked her what she saw.“It’s flat,” she replied.Then I asked her to look to the West.“It’s flat that way, too,” she answered.To the East is Russia across the plains. To the West is Germany across similarly flatplains. The port at Gdansk allowed the Germans to move into Poland, Russia, and theBaltic states. She understood.The lesson on geography, history, and war occurred when my family traveled in thespring semester of 2001 to Poland, where I taught as a Fulbright fellow at AdamMickiewicz University in Poznan.Many educators interested in the Fulbright program often wonder how their familieswill fare during the time abroad. During the five months my family and I stayed inPoland, the Fulbright experience provided an opportunity to spend far more time withmy family than during a normal academic year.My wife, Elizabeth, has an extensive network of cousins throughout Poland, and shespeaks the language. That certainly made the time even more enjoyable. Still, the threeof us visited Rome, St. Petersburg, Cracow, Gdansk, and a host of other towns andcities throughout Poland.It took some planning. First, I had to teach my courses at the university. That wasthe primary reason I was there. Secondly, we decided to home school Cecylia duringour stay. That way she could travel with us when we had time.What did she learn? We are Roman Catholics, and Cecylia attends a Catholicschool, where she is now in fifth grade. Therefore, we stopped in Rome.At the Vatican Museums, she saw the original paintings of Merlozzo da Forli—aprint of which hangs in her bedroom. She also saw Pope John Paul II during a churchservice.In Poland, she traveled the same streets in Cracow, where the future Pope studiedand taught. She learned about Copernicus and his discoveries during a visit to hishome of Torun. She saw the castles of the Teutonic knights and tried on some of theirold armor.My wife and I had always wanted to visit the Hermitage in St. Petersburg, Russia.We didn’t know how Cecylia would react. She wanted to visit the Hermitage so oftenthat we spent three days there.In Poznan, a business center in western Poland, Cecylia attended a series of concertsof boys’ choirs. The festival is held once every eight years—the last time occurred whenshe was born.Also, Cecylia and I are brown belts in karate. We found a local karate club andtrained there. The common language centered on the Japanese terms used in karate anda few hand motions by the Polish instructor.Certainly, there were hardships. My wife had to put her decorative painting businesson hold. My intended research project gave way to travel.Nevertheless, it was an experience none of us will forget, including the time wespent with my wife’s relatives throughout the country. Cecylia met her aunt who servesas a judge, two cousins involved in computer technology, an uncle with whom she hadcorresponded for several years, and a host of other relatives she didn’t even know shehad.We made sure we would not forget the experience. I tried out a new digital videocamera, and Cecylia kept a diary of her adventures. When we returned home, I had heruse the diary for voice-overs, then I put the results on the Web.You can view our travel videos at www.ithaca.edu/harper. I hope you enjoy ouradventure and consider the Fulbright program that can be found at www.cies.org.Christopher Harper is the Roy H. Park Distinguished Professor of Communications atIthaca College in Ithaca, New York.54Feedback February 2003 (Vol. 44, No. 1)BEA—Educating tomorrow’s electronic media professionals 55
<strong>DIGITAL</strong>REVIEW OF THE HIPIX <strong>DIGITAL</strong>TELEVISION COMPUTER CARDMichel Dupagne, University of Miamidupagnem@miami.eduThe author is grateful to Bruce Garrison for his feedback on a previous draft of this manuscript.When introduced to the U.S. market in August 1998, the first consumer highdefinitiontelevision (HDTV) sets cost about $7,000, including the necessary externaldecoder to receive digital signals (Dupagne, 2002). HDTV presents television imagesin substantially higher resolution (1080 Interlaced or 720 Progressive) than the currentanalog National Television System Committee (NTSC) standard and in widescreenformat (16:9 aspect ratio). On the other hand, standard-definition television (SDTV),another terrestrial digital television (DTV) technology, does not offer significant higherresolution (480P or 480I) than NTSC and can use either the current 4:3 aspect ratio orthe wider 16:9 aspect ratio. From 1998 to 2002, prices of DTV sets and displays, thatinclude direct-view and projection DTVs with integrated (built-in) decoders and standaloneDTV displays, declined by nearly 50% (Consumer Electronics Association[CEA], 2002a; for a recent review of these economic issues, see Seel & Dupagne,2002). In March 2002, DTV receivers retailed anywhere from less than $1,000 tomore than $20,000, depending on screen size, aspect ratio, display type, andavailability of an integrated HDTV decoder (CEA, 2002b). In 2002, most DTVmodels were “HDTV-capable” and were sold without an HDTV tuner/decoder. InMarch 2002, the cheapest integrated HDTV receiver cost $1,795. In June, the numberof DTV products sold since 1998 exceeded the three million unit mark (CEA, 2002c).The genesis of DTV PC card technology began in January 1998 when WETA-TV inWashington, DC, successfully transmitted 480I SDTV programming to a computerlocated four miles away and equipped with an Intel-built prototype receiver card and a‘rabbit ears’ antenna (Jessell, 1998). The card decoded the DTV signal and displayed iton the computer monitor. Between late 1999 and early 2001, several hardwaremanufacturers began offering an alternative to expensive DTV receivers by introducingconsumer HDTV PC cards, that allowed viewers to watch terrestrial HDTV broadcastson their PCs (e.g., Careless, 1999; Lassiter, 2001). As of September 2002, the fourmost frequently used HDTV decoding cards were: Hauppauge’s WinTV-HD(www.hauppauge.com), Global Telemann Systems’ HiPix DTV-200(www.telemann.com), accessDTV (www.accessdtv.com), and Macro ImageTechnology’s MyHD MDP-100 (www.mitinc.co.kr/e_index.htm). All but the WinTV-HD card were available for purchase through the Digital Connection site(www.digitalconnection.com) for about $400 each. By September 2002, DigitalConnection had sold about 3,000 of such PC cards.This paper could be easily retitled: “Can I Watch HDTV Programming with a $400Digital Television Card?” To alleviate the suspense, the answer to this question is ‘yes’.But this review goes beyond a simple description of the installation procedures andmechanics of the Telemann HiPix DTV-200 card. As a technical case study, it alsoreports the results of reception tests conducted with the card in the multimedia lab ofthe School of Communication at the University of Miami in September 2002. It seeksto answer a question that has significant implications for consumers and the broadcasttelevision industry: Does the HiPix card decode and receive HDTV signalssatisfactorily with outdoor and indoor antennas? This computer card was selectedbecause of its extensive features, including an expansion card with audio and videoinputs and outputs. Before describing the testing procedures and results for DTVreception, the paper will highlight the features of the card.Features of the CardIntroduced in November 2000 on the U.S. market, the $400 Telemann HiPix DTV-200 card is able to convert any of the 18 terrestrial ATSC (Advanced TelevisionSystems Committee) DTV transmission formats up to 720P and 1080I and displaythem onto an HDTV-ready television screen or a PC monitor. It also provides DolbyDigital 5.1 (AC-3) audio if you have a six-channel computer card or audio receiver(and 5.1 speakers). In addition, you can record, store, and replay HDTV programmingon your hard drive. Finally, the HiPix card can also receive over-the-air NTSC signalsas well as display analog video signals from external sources (e.g., VCRs and DVDplayers).The HiPix DTV-200 package contains three major components:• The main PCI board (Figure 1), that includes (from left to right) 1.) an NTSCRadio Frequency (RF) input from antenna/cable (CABLE); 2.) an ATSC RF inputfrom antenna (VSB ANT); 3.) a VGA input from the VGA card (VGA IN); and,4.) an HD video output to an HDTV-ready TV or PC monitor (VGA/HD OUT).• A small expansion (daughter) card (Figure 2), that includes (from left to right) 1.0 anS-video input from an external device such as a VCR or a DVD player (S-VIDEOIN); 2.) a composite video input from an external device such as a VCR or a DVDplayer (VIDEO IN); 3.) a stereo audio input from an external device such as a VCRor a DVD player (AUDIO IN); 4.) a composite video output to NTSC TV or acapture card (VIDEO OUT); 5.) a stereo audio output to NTSC TV or a capturecard (AUDIO OUT); and, 6.) a Dolby Digital 5.1 output to a Dolby Digital 5.1receiver or amplifier (AC3 OUT). The expansion card is only required if you use externaldevices, such as a VCR, a DVD player, or a camcorder, with the main PCI card.• A remote control device and the associated infrared (IR) remote control receivermodule that plugs into a serial port.The system requirements include:• Pentium II 333 Mhz or higher• Microsoft Windows 98 SE, Me, 2000, or XP• 64 MB available memory• 2 GB available disc space• available PCI slot for the main card and available blank bracket space for theexpansion card56Feedback February 2003 (Vol. 44, No. 1)BEA—Educating tomorrow’s electronic media professionals 57