Electron Gun Systems for Color Cathode Ray Tubes

Advances in Imaging and Electron Physics

Volumn 105, Issue C, 1998, Pages 267-404

  Suzuki, Hiroshi ^a  

^a PANASONIC CORPORATION   (Japan)

Author keywords

[No Author keywords available]

Indexed keywords

EID: 77957706105     PISSN: 10765670     EISSN: None     Source Type: Book Series    
DOI: 10.1016/S1076-5670(08)70178-2     Document Type: Article

References (260)

1. Aalders A.F., Van Engelshoven J., and Gerritsen J. Modeling and simulation of electron gun with complex geometries. SID Intern. Symp. Digest XX (1989) 38-41
2. Adachi O., Wakasono H., Kitagawa O., and Konosu O. Super-flat-face large-size-screen color CRT. SID Intern. Symp. Digest XXII (1991) 37-40
3. Alig R.C. Kinescope electron gun design. RCA Rev. 41 (1980) 517-536
4. Alig R.C., and Hughes R.H. Expanded field lens design for inline picture tubes. SID Symp. Digest XIV (1983) 70-71
5. Alig R.C. Horizontal deflection defocusing in CRTs. J. SID 1 (1993) 371-374
6. Alig R.C., and Trinchero O. A CAD/CAM tolerance analysis of color CRT electron guns. SID Intern. Symp. Digest XXVI (1995) 107-110
7. Alig R.C., and Fields J.R. Computer-aided design of electron guns and deflection yokes: A review (Part 1. J. SID 5 3 (1997) 203-215
8. Aimer F.H.R., and Kuiper A. New developments in oxide-coated cathodes: II. An oxide-coated cathode with a half-watt heater for cathode-ray tubes. Philips Tech. Rev. 23 1 (1961) 23-27
9. Amboss, K. 1993 A review of the theory of space charge limited operation, Proc. Conf. Electron Beam Melting Refin. State Art 117-126.
10. Ando K., Osawa M., Shimizu T., Maruyama T., and Fukushima M. A flicker-free 2448 × 2048 dot color CRT display. Proc. SID 26 4 (1985) 285-291
11. Ashizaki S., and Suzuki Y. 40″ CRT display. Denshi Tokyo (J. IEEE Tokyo Sect. 23 (1984) 108-112
12. Ashizaki, S., Suzuki, H., Sugawara, K., Natsuhara, M., and Muranishi, H. 1986 In-line gun with dynamic astigmatism and focus correction, Proc. 6th Intern. Disp. Res. Conf. (Japan Disp.'86), 44-47.
13. Ashizaki S., Suzuki Y., Konosu O., and Adachi O. 43-in. direct-view color CRT. Proc. SID 29 1 (1988) 47-51
14. Barbin R.L., and Hughes R.H. A new color picture tube system for portable TV receivers. IEEE Trans. Broadcast. Telev. Receivers BTR-18 (1972) 193-200
15. Barbin R.L., Simpson T.R., and Marks B.G. A color-data-display CRT: A product whose time has come. RCA Engineer 27 4 (1982) 23-32
16. Barbin R.L., Canevazzi G., Cosma P., Maresca A., and Spina P. A 16/9 aspect-ratio higher definition consumer color CRT family. SID Intern. Symp. Digest XXI (1990) 552-555
17. Barkow, W. H., and Gross, J. 1974 The RCA large screen 110′ precision in-line system, 2nd Annual Convention Fernseh und Kinotechnische Gesellschaft, Munich, Germany, Oct. 15.
18. Barten P.G.J. The 20AX system and picture tube. IEEE Trans. Broadcast Telev. Receivers 20 4 (1974) 286-292
19. Barten P.G.J., and Kaashoek J. 30AX self-aligning 110′ in-line color TV display. IEEE Trans. Consum. Electron. CE-24 3 (1978) 481-487
20. Barten, P. G. J. (1982). Astigmatic electron lens for a cathode-ray tube, U. S. Patent 4, 366, 419.
21. Barten P.G.J. Spot size and current density distribution of CRTs. Proc. SID 25 3 (1984) 155-159
22. Barten P.G.J. CRT; present and future. SID Seminar Note S-3 (1989)
23. Bechis D.J., Fields J.R., New D.A., Paul W.B., Sverdlov E.R., Winarsky N.D., and Lausman T.C. Applications of a fully three-dimensional electron-optics computer program to high-resolution CRT design. Proc. SID 30 3 (1989) 229-239
24. Bessho J. A study on triode electron guns. NHK(Jpn. Broadcast. Corp.) Tech. Rep. 15 (1963) 233-254
25. Beynar K.S., and Nikonov B.P. The measurement of the work function of oxide cathodes using the method of contact potential differences. Radio Eng. Electron. 9 (1964) 1518-1524
26. Bijmer, J. 1981 Experimental analysis of electron beams in a display tube, Proc. 1st Intern. Disp. Res. Conf. (Euro. Disp. '81), 166-169.
27. Blacker, A. P., Wilson, I. M., and Schwartz, J. W. 1976 A new form of extended field lens for use in color television picture tube guns, IEEE Chicago Spring Conf. Consum. Electron.
28. Bloom S., and Hockings E.F. Integral grids for dynamic astigmatism control in picture-tube guns. IEEE Trans. Electron Devices ED-36 (1989) 777-784
29. Boekhorst A., and Stolk J. Television Deflection Systems (1962), Philips Tech. Library, Eindhoven, The Netherlands 51-56
30. Branton T.W., Godfrey R.H., Masterton W.D., Morrel A.M., Trim M.E., and Weber D.L. Recent trends in color picture tube design. RCA Engineer 25 2 (1979) 4-11
31. Braun F. Über ein Verfahren zur Demonstration und zum Studium des zeitlichen Verlaufes variabler Ströme. Annalen der Physik 60 (1897) 552-559
32. Breeze G.S. Cutoff variations due to barium evaporation from dispenser cathodes. SID Intern. Symp. Digest XXIV (1993) 423-426
33. Buchsbaum W.H. GE 11-inch color TV: the new look in color receivers. Electron. World 75 3 (1966) 39-41
34. Bush H. Berechnung der Bahn von Kathodenstrahlen im axialsymmetrischen elek tromagnetishchen Felde. Annalen der Physik 81 (1926) 974-993
35. Chen H.Y., and Hughes R.H. A high performance color CRT gun with an asymmetrical beam forming region. IEEE Trans. Consum. Electron. CE-26 (1980) 459-465
36. Chen H.Y. An in-line gun for high-resolution color display. Proc. SID 23 3 (1982) 123-127
37. Chen H.Y. High-resolution electron gun designed for a new generation of color data display tubes. Proc. SID 26 4 (1985) 267-271
38. Chen, H. Y, and Gorsky, R. M. 1989 A beam forming region dynamic quadrupole inline gun design, Proc. 9th Intern. Disp. Res. Conf. (Japan Disp. '89) 466-469.
39. Chen H.Y., and Gorsky R.M. A new dynamic quadrupole gun optimized for high-resolution color CRT. SID Intern. Symp. Digest XXI (1990) 548-551
40. Chen H.Y., and Tsai S.S. A double-hollow chain-link color CRT electron gun. SID Intern. Symp. Digest XXIV (1993) 411-414
41. Child D.C. Discharges from hot CaO. Phys. Rev. 32 (1911) 492-511
42. Ciuciura A. Soft-flash: a new development in color picture tube technology. Mullard Tech. Comm. 14 135 (1977) 201-208
43. Corson B. Some reliability characteristics of CRT cathode assemblies. IEEE Trans. Reliability R-23 (1974) 226-230
44. Cronin J.L. Modem dispenser cathodes. IEE Proc 128 (1981) 19-32
45. Dallos A., Buckbee J.A., and Spencer G.R. CRT cathode temperature control for high current densities. Proc. SID 22 1 (1981) 11-14
46. Dasgupta B.B. Designing self-converging CRT deflection yokes. Inform. Disp. 8 1 (1992) 15-19
47. Davis C.A., and Say D.L. High-performance electron guns for color TV-a comparison of recent designs. IEEE Trans. Consum. Electron. CE-25 (1979) 475-480
48. Druyvesteyn M.J., and Penning F.M. The mechanism of electrical discharges in gases of low pressure. Rev. Modern Phys. 12 2 (1940) 140-155
49. Eccles D., Romans G., and Held J. HDTV:good enough for data?. Inform. Disp. 9 1 (1993) 16-19
50. El-Kareh A., and El-Kareh J. Electron Beams, lenses, and Optics 1 (1970), Academic Press, New York 54-80
51. El-Kareh A., and El-Kareh J. Electron Beams, lenses, and Optics 2 (1970), Academic Press, New York 50-88
52. Endo N., Mizuki M., Ohshige Y., Takanami C., Amano Y., and Ichida K. An electron gun with extended-field elliptical aperture lens. SID Intern. Symp. Digest XXVIII (1997) 347-350
53. Endo S., Sasaki S., and Nakagawa S. Impregnated cathode for CRT use. Tech. Group Inform. Disp. Inst. Electron. Inform. Commun. Eng. Jpn. EID89-75 (1990) 7-12
54. Falce, L. R. 1983 Dispenser cathodes: the current state of the technology, Proc. Intern. Electron. Devices Meeting Washington D. C, 448-451.
55. Falce L.R., and Breeze G.S. Controlled-porosity dispenser (CPD) cathodes for high-resolution CRTs. SID Intern. Symp. Digest XXII (1991) 703-706
56. Falce L.R. Dispenser cathodes for CRTs. Inform. Disp. 8 1 (1992) 11-14
57. Farina J.M., Maropis N., and Werner K. Manufacturing HDTV cathodes. Inform. Disp. 8 6 (1992) 16-18
58. Francken J.C. The resistance network, a simple and accurate aid to the solution of potential problems. Philips Tech. Rev. 21 (1959) 10-23
59. Friedman P.S., Stoller R.A., and Wedding D.K. An analysis of large-area HDTV display technology: CRT, LCD, and PDP. Proc. SID 32 2 (1991) 99-104
60. Fujio T. High-definition television systems. Proc. IEEE 73 4 (1985) 646-655
61. Fukushima M., Fukuzawa K., Ando K., and Yamaguchi A. Development of color picture tube with Hi-UPF electron gun. Tech. Group Electron. Devices Inst. Electron. Inform. Commun. Eng. Jpn. ED77-71 (1977) 1-8
62. Gamier J.P., Trinchero O., New D.A., and Paul W.B. An electron gun with doubleslot arrangement for improved spot uniformity. SID Intern. Symp. Digest XXV (1994) 659-662
63. Gerritsen J. Soft-flash picture tubes. IEEE Trans. Consum. Electron. CE-24 4 (1978) 560-565
64. Gerritsen J., and Barten P.G.J. An electron gun design for flat square 110′ color picture tubes. Proc. SID 28 1 (1987) 15-19
65. Gerritsen J., and Himmelbauer E. The Polygon gun for a cleaner, sharper electron spot. Electron. Components Applications 9 1 (1989) 31-34
66. Gerritsen, J., and Sluyterman, A. A. S. 1989 A new picture tube system with homogeneous spot performance, Proc. 9th Intern. Disp. Res. Conf. (Japan Disp. '89) 458-461.
67. Gibson J.W., Haas G.A., and Thomas R.E. Investigation of scandate cathodes: emission, fabrication, and processes. IEEE Trans. Electron. Devices ED-36 1 (1989) 209-213
68. Gold R.D., and Schwartz J.W. Drive factor and gamma of conventional kinescope guns. RCA Rev. 24 (1958) 564-583
69. Gorog I. Displays for HDTV: Direct-view CRTs and projection systems. Proc. IEEE 82 4 (1994) 520-536
70. Grivet P. Electron Optics. 2nd ed. (1972), Pergamon Press, Oxford and New York 155-198
71. Grivet P. Electron Optics. 2nd ed. (1972), Pergamon Press, Oxford and New York 287-301
72. Haantjes J., and Lubben G. Errors of magnetic deflection II. Philips Res. Reports. 14 (1959) 65-97
73. Hamano E., Okada H., Koshigoe S., Suzuki Y., and Seino K. Supernarrow-neck color picture tube. Toshiba Rev. 34 10 (1979) 875-878
74. Hara Y., Ogawa S., Takeuchi K., and Kanna K. A higher current density oxide-coated cathode for CRT use. SID Intern. Symp. Digest XXI (1990) 442-445
75. Hasker J., and Groendijk H. Measurement and calculation of the figure of merit of a cathode-ray tube. Philips Res. Rep. 17 (1962) 401-418
76. Hasker J. Transverse-velocity selection affects the Langmuir equation. Philips Res. Rep. 20 (1965) 34-47
77. Hasker J. The influence of initial velocities on the beam-current characteristic of electron guns. Philips Res. Rep. 21 (1966) 122-150
78. Hasker J. Astigmatic electron gun for the beam-indexing color television display. IEEE Trans. Electron. Devices ED-18 9 (1971) 703-712
79. Hasker J. Beam-current characteristic and cathode loading of electron guns with rotational symmetry: Some important properties and method of calculation. Philips Res. Rep. 27 (1972) 513-538
80. Hasker J. Improved electron gun for the beam-indexing color television display. IEEE Trans. Electron Devices ED-20 11 (1973) 1049-1052
81. Hasker J., and Stoffelen H.J.H. Alternative Auger analysis reveals important properties of M-type and scandate cathodes. Appl. Sur. Sci. 24 (1985) 330-339
82. Hasker J., and van Dorst P.A.M. Pitfalls in the evaluation of cathode properties from I-V characteristics. IEEE Trans. Electron Devices ED-36 (1989) 201-207
83. Hasker J., Crombeen J.E., and van Dorst P.A.M. Comments on progress in scandate cathodes. IEEE Trans. Electron. Devices ED-36 (1989) 215-219
84. Hayashida Y., Ozawa T., and Sakurai H. An analysis of cut-off voltage drift in the oxide cathode life. Tech. Group Inform. Disp. Inst. Telev. Eng. Jpn. IDY95-13 (1995) 13-18
85. Heijnemans W.A.L., Nieuwendijk J.A.M., and Vink N.G. The deflection coils of the 30AX colour-picture system. Philips Tech. Rev. 39 6/7 (1980) 154-171
86. Hellings, G. J. A., and Baalbergen, J. J. 1997 Quality assurance systems in the manufacturing of electron guns and electron gun components, Proc. 4th Intern. Disp. Workshop (IDW '96), 477-480.
87. Hemqvist K.G. Studies of flashovers and preventive measures for Kinescope guns. IEEE Trans. Consum. Electron. CE-27 (1981) 117-128
88. Hemqvist, K. G., and Liller, P. R. 1984 High voltage processing and arc suppression for color picture tubes, Proc. Xlth Intern. Symp. on Discharge Electrical Insulation in Vacuum pp. 433-435.
89. Herrmann G., and Wagener P.S. The Oxide Coated Cathodes 1 (1951), Chapman & Hall, London 15-73
90. Herrmann G., and Wagener P.S. The Oxide Coated Cathodes, 2 (1951), Chapman & Hall, London 1-29
91. Herrmann G., and Wagener P.S. The Oxide Coated Cathodes, 2 (1951), Chapman & Hall, London 35-44
92. Herrmann G., and Wagener P.S. The Oxide Coated Cathodes, 2 (1951), Chapman & Hall, London 150-174
93. Hirabayashi K., Kitagawa O., and Natsuhara M. In-line type high-resolution color display tube. Natl. Tech. Rep., (Matsushita Electr. Ind. Co. 28 1 (1982) 94-106
94. Hosokoshi K., Ashizaki S., and Suzuki H. A new approach to a high performance electron gun design for color picture tubes. IEEE Trans. Consum. Electron. CE-26 (1980) 452-458
95. Hosokoshi, K., Ashizaki, S., and Suzuki, H. 1983 Improved OLF in-line gun system, Proc. 3rd Intern. Disp. Res. Conf. (Japan Disp. '83) 272-275.
96. Hughes R.H., and Chen H.Y. A novel high-voltage bipotential CRT gun design. IEEE Trans. Consum. Electron. CE-25 2 (1979) 185-191
97. Ichida, K., Nakayama, Y., and Inoue, H. 1987 A complex lens Trinitron gun for a high-resolution color tube, Proc. 7th Intern. Disp. Res. Conf. (Euro Disp. '87) 204-207.
98. Ichida, K., Watanabe, Y, and Inoue, H. 1988 ATrinitron gun with dynamic quadrupole lens providing focus control and astigmatism correction, Proc. 8th Intern. Disp. Res. Conf. pp. 13-16.
99. Iguchi Y., Hasegawa K., Hayashi M., and Nakayama Y. A new method of designing a DQL Trinitron gun to reduce the dynamic focus voltage. SID Intern. Symp. Digest XXIII (1992) 881-884
100. Ikegami K., Okuda S., Sano K., and Nosaka E. Measurement of emittance diagram of electron gun asymmetrical beam-forming region. IEEE Trans. Electron. Devices ED-33 8 (1986) 1145-1148
101. Imai T. Thermionic cathodes for electron tubes: A survey. Oyo Butsuri (Jpn. 31 12 (1962) 963-983
102. Inoue T., Nakamura M., Ohmura N., Ohta Y., and Takamura T. A super-flat high-resolution Trinitron. SID Intern. Symp. Digest XXIII (1992) 877-880
103. Ishida R., Yamane H., Toshiyasu M., Okuda S., and Nakanishi H. Dynamic beam shaping of in-line color CRTs. SID Intern. Symp. Digest XVII (1986) 327-329
104. Iwasaki K., and Konosu O. Coma correction free deflection yoke, Tech. Group Electron. Devices Inst. Telev. Eng. Jpn. ED87-55 (1987) 19-24
105. Jenkins R.O. A review of thermionic cathodes. Vacuum 19 (1969) 353-359
106. Johnson J.B. A low voltage cathode ray oscilloscope. J. Opt. Soc. Am. 6 (1922) 701-702
107. Kaashoek J. Deflection in the 20AX system. IEEE Trans. Broadcast Telev. Receivers 20 4 (1974) 293-298
108. Katsuma T., Hamano E., Shimaohgi T., and Umezu N. Dynamic astigmatism control quadra potential focus gun for 21-in. flat square color display tube. SID Intern. Symp. Digest XIX (1988) 136-139
109. Kawakami H., Ishigaki I., Nishida J., and Maeda H. Low-blooming electron gun for color picture tube. J. Inst. Telev. Eng. Jpn. 29 12 (1975) 1000-1006
110. Kikuchi, N., Natori, M., and Amano, Y 1996 A new electron gun with multi-astigmatism lens system, Proc. 3rd Intern. Disp. Workshop (IDW '96) 213-216.
111. Kimura S., Kobayashi K., Higuchi T., Yakabe T., Matsumoto S., Yamamoto E., Miyazaki D., Ohno C., and Hara A. Dispenser cathodes for electron tubes. Tech. Group Electron. Devices Inst. Electron. Inform. Commun. Jpn. ED89-120 (1989) 15-21
112. Kimura S., Yatabe T., Matsumoto S., Miyazaki D., Yoshii T., Fujiwara M., and Koshigoe S. Ir-coated dispenser cathode for CRT. IEEE Trans. Electron. Devices ED-37 12 (1990) 2564-2567
113. Kitagawa O., Iwasaki K., Adachi O., Fujisawa H., and Kuwabara Y. Hyperbolic flat ART color picture tube series. Natl. Tech. Rep. (Matsushita Electr. Ind. Co. 33 2 (1987) 21-35
114. Klemperer O., and Barnett M.E. Electron Optics. 3rd ed. (1971), Cambridge Univ. Press, London 229-232
115. Klemperer O., and Barnett M.E. Electron Optics. 3rd ed. (1971), Cambridge Univ. Press, London 38-40
116. Klemperer O., and Barnett M.E. Electron Optics. 3rd ed. (1971), Cambridge Univ. Press, London 22-25
117. Klemperer O., and Barnett M.E. Electron Optics. 3rd ed. (1971), Cambridge Univ. Press, London 169-175
118. Klemperer O., and Barnett M.E. Electron Optics. 3rd ed. (1971), Cambridge Univ. Press, London 390-392
119. Klemperer O., and Barnett M.E. Electron Optics. 3rd ed. (1971), Cambridge Univ. Press, London 81-92
120. Klemperer O., and Barnett M.E. Electron Optics. 3rd ed. (1971), Cambridge Univ. Press, London 33-37 100-106
121. Kobori Y., Katagiri Y., Kaji T., and Hasegawa N. A novel arc-suppression technique for cathode ray tubes. IEEE Trans. Consum. Electron. CE-26 (1980) 446-451
122. Koganezawa N., and Yamamoto S. Characteristics of an impregnated cathode for HD-CRTs. SID Intern. Symp. Digest XXII (1991) 707-710
123. Konosu O. The role of electron beam in display devices. Nuclear Inst. Meth. Phys. Res. Sect. A 363 (1995) 330-336
124. Krause, A. V. D. V. (1958). Cathode-ray tubes, U. S. Patent No. 2, 829, 292.
125. Kubo T. Development of high-definition TV displays. IEEE Trans. Broadcast. BC-28 (1982) 51-64
126. Kuramoto T., Honda M., Yoshida T., and Konosu O. The SSC deflection yoke for inline color CRTs. Proc. SID 30 1 (1989) 29-32
127. Langmuir D.B. Theoretical limitation of cathode ray tubes. Proc. IRE 25 (1937) 977-991
128. Langmuir I. The effect of space charge and initial velocities on the potential distribution and thermionic current between parallel plane electrodes. Phys. Rev. 21 (1923) 419-435
129. Law R.R. High current electron gun for projection kinescopes. Proc. IRE 25 (1937) 954-976
130. Law R.R. Factors governing performance of electron guns in television cathode-ray tubes. Proc. IRE 30 (1942) 103-105
131. Lechner B. High definition TV. SID Intern. Symp. Digest XVI (1985) 14-19
132. Lee S.Y., Nakanishi H., and Lee M.Y. CRT grid emission and its prevention when using dispenser cathodes. SID Intern. Symp. Digest XXV (1994) 516-519
133. Lemmens H.J., Tnasen M.J., and Loosjes R. A new thermionic cathode for heavy loads. Philips Tech. Rev. 11 (1950) 341-350
134. 2. Philips Tech. Rev. 23 1 (1961) 19-23
135. Levi, R. (1955). U.S. Patent No. 2, 700, 000.
136. Levi R. The impregnated cathode. Philips Tech. Rev. 19 6 (1957) 186-190
137. Levi, R. (1965). U.S. Patent No. 3, 201, 639.
138. Loosjes R., and Vink H.J. The conduction mechanism in oxide-coated cathodes. Philips Res. Rep. 4 (1949) 449-475
139. Loosjes R., and Vink H.J. Conduction processes in the oxide-coated cathode. Philips-Tech. Rev. 11 9 (1950) 271-278
140. Loty C. Simulation of cathode-region electron beams. SID Intern. Symp. Digest XV (1984) 262-263
141. Lucchesi B.F., and Carpenter M.E. "Pictures" of deflected electron spot from a computer. IEEE Trans. Consum. Electron. CE-25 (1979) 468-474
142. MacGregor D.M. Computer-aided design of color picture tubes with a three-dimensional model. IEEE Trans. Consum. Electron. CE-29 3 (1983) 318-325
143. MacGregor D.M. Three-dimensional analysis of cathode ray tubes for color television. IEEE Trans. Consum. Electron. CE-33 8 (1986) 1098-1106
144. Medicus G. Thermionic constants determined from retarding-field data. J. Appl. Phys. 50 5 (1979) 3666-3673
145. Mitsuda, K., Sugawara, K., Konosu, O., and Ashizaki, S. 1991 107 cm diagonal 16:9 color CRT for HDTV displays, Proc. 11th Intern. Disp. Res. Conf. 35-38.
146. Miyazaki, M., Izumida, Y, Yamazaki, E., and Shirai, S. 1986 An elliptical aperture, concaved surface main lens for in-line color CRT, Proc. 6th Intern. Disp. Res. Conf. (Japan Disp. '86) 48-51.
147. Morrell A.M., Law H.B., Ramberg E.G., and Herold E.W. In: Kazan B. (Ed). Color Television Picture Tubes (1974), Academic Press, New York 91-99
148. Morrell A.M., Law H.B., Ramberg E.G., and Herold E.W. Color Television Picture Tubes. (1974), Academic Press, New York 129-133
149. Morrell, A. M. 1974 Design principles of the RCA large-screen 110′ precision in-line color picture tube (B. Kazan, Ed.), 2nd Annual Convention Fernseh und Kinotechnische Gesellschaft, Munich, Germany, Oct. 15.
150. Morrell A.M. An overview of the COTY-29 tubes system: an improved generation of color picture tubes. IEEE Trans. Consum. Electron. CE-28 3 (1982) 290-296
151. Morrell A.M. The RCA COTY-29 tube system. RCA Engineer 28 4 (1983) 28-32
152. Moss H. The electron gun of the cathode-ray tube, Pt. II. J. Brit. IRE 6 (1946) 99-129
153. Moss H. Measurements of the limiting image current density produced by electron guns of rotational symmetry. J. Electron. Control 10 (1961) 341-364
154. Moss H. Narrow Angle Electron Guns and Cathode Ray Tubes (1968), Academic Press, New York 81-95
155. Moss H. Narrow Angle Electron Guns and Cathode Ray Tubes (1968), Academic Press, New York 15-26
156. Moss H. Narrow Angle Electron Guns and Cathode Ray Tubes (1968), Academic Press, New York 53-77
157. Moss H. Narrow Angle Electron Guns and Cathode Ray Tubes (1968), Academic Press, New York 156-158
158. Mueller W. Electronic structure of BaO/W cathode surfaces. IEEE Trans. Electron. Devices ED-36 (1989) 180-187
159. Mulvey T. Electron microprobes. In: Septier A. (Ed). Focusing of Charged Particles (1967), Academic Press, New York 475-476 1
160. Muranishi H., and Okamoto T. An improvement of electron gun for color CRT. Tech. Group Electron. Devices Inst. Electron. Inform. Commun. Jpn. ED77-72 (1977) 9-16
161. Nakanishi H., and Imanishi W. Creeping discharge in color picture tubes. IEEE Trans. Consum. Electron. CE-26 (1980) 431-444
162. Nakanishi H., Okuda S., Yoshida T., and Sugahara T. A high-resolution color CRT for CAD/CAM use. IEEE Trans. Electron. Devices ED-33 8 (1986) 1141-1144
163. Nakanishi H. Thermionic cathodes for CRTs. Oyo Butsuri (Jpn. 56 11 (1987) 1423-1432
164. Nakanishi H., and Sano K. High current density cathodes for CRT use. Tech. Group Inform. Disp. Inst. Telev. Eng. Jpn. ID89-23 (1989) 1-8
165. Nakanishi H., Sano K., Suzuki R., and Saito M. An oxide-coated cathode for CRT use at high current density. Proc. SID 31 (1990) 165-169
166. Nakanishi H. Cathodes for CRTs. Display and Imaging (Jpn. 3 (1994) 99-106
167. 3 for CRTs. Tech. Group Electron. Inform. Display Inst. Electron. Inform. Commun. Eng. Jpn. EID94-23 (1994) 49-54
168. Nakanishi, H. 1996 CRT stray emission study with 2D-FEM, Proc. 16th Intern. Disp. Res. Conf. (Euro Disp. '96) 189-192.
169. Natori, M., Kikuchi, N., and Amano, Y. 1997 A new method for correcting delta deflection defocusing, Proc. 4th Intern. Disp. Workshop (IDW '96) 473-476.
170. Nikaido S., Ouchi Y., Kimura S., Yamamoto E., Kobayashi K., and Onoe A. Some considerations of operation mechanism of oxide cathodes. Tech. Group Electron. Devices. Inst. Electron. Commun. Eng. Jpn. ED82-90 (1982) 49-56
171. Niklas W.E., Szegho C.S., and Wimpffen J. A television picture tube with increased effective perveance for cathode modulation. J. Telev. Soc 8 (1957) 368-375
172. Ninomiya K., Urano T., and Okoshi T. Digital computer analysis of electron guns for cathode-ray tubes by taking into account initial thermal velocities. J. Inst. Electron. Inform. Commun. Eng. Jpn. 54-B (1971) 490-497
173. Nose, H., Shirai, S., Ueyame, T., Maehara, M., and Sakurai, S. 1995 Development of 56 cm color display tube, Proc. 15th Intern. Disp. Res. Conf. (Asia Disp. '95) 749-752.
174. Ogusu C. Electron-optical study on electron beams of CRTs with initial thermal velocities. NHK (Jpn. Broadcast. Corp.) Tech. Rep. 21 (1969) 287-338
175. Ohsawa M., Sakurai S., Ando K., Funada E., Kaku M., and Shiomi M. A 32-in. high-brightness color display for HDTV. SID Intern. Symp. Digest XXI (1990) 556-559
176. Ohta Y., Takenaka S., and Ikegaki M. RIS system 110-degree-deflection color picture tube. Toshiba Rev. 27 11 (1972) 1007-1010
177. Oku, K., Tobe, A., Imazeki, M., Shirai, K., and Osakabe, K. 1992 Analysis on electron beams of CRTs with axi-asymmetric electron guns, Proc. 12th Intern. Disp. Res. Conf. (Jpn. Disp. 92) 273-276.
178. Ouchi Y., Nikaido M., Kimura S., Nakayama S., and Onoe A. Structure of basemetal of indirect oxide cathode under operation. Tech. Croup Electron. Devices Inst. Electron. Commun. Eng. Jpn. ED82-89 (1982) 43-48
179. Pierce J.R. Limiting current densities in electron beams. J. Appl. Phys. 10 (1939) 715-724
180. Ploke M. Elementary theory of electron beam formation with triode system I, Z. Angew. Phys. 3 (1951) 441-449
181. Ploke M. Elementary theory of electron beam formation with triode system II, Z. Angew. Phys. 4 (1952) 1-12
182. Ramberg E.G. Variation of the axial aberrations of electron lenses with lens strength. J. Appl. Phys. 13 (1942) 582-594
183. Rittner E.S. A theoretical study of the chemistry of the oxide cathode. Philips Res. Rep. 8 (1953) 184-238
184. Rutter V.E., and Schimmel D.G. Coated powder cathodes-applications and technology. Appl. Surf. Sci. 2 (1979) 118-127
185. Saito T., Kubota S., and Miyaoka S. Digital computer studies of electron lenses for cathode-ray tubes. J. Appl. Phys. 44 10 (1973) 4505-4510
186. Saito T., Kikuchi M., and Sovers O.J. Design of complex electron lenses consisting of two double cylinders. J. Appl. Phys. 50 10 (1979) 6123-6128
187. Saito M., Ishida M., Fukuyama K., Watanabe K., Kamata T., Sano K., and Nakanishi H. Higher current density oxide cathode for CRT. NTG Fachber 95 (1986) 165-170
188. 203-dispersed oxide cathodes. IEEE Trans. Electron Devices ED-37 02 (1990) 2605-2611
189. 3-dispersed oxide cathode for CRT applications. SID Digest Manufac. Tech. Conf. II (1995) 59-60
190. Sakuraya S., Uba T., Tamai H., Oguchi S., Makino T., Sudo M., and Ashiya R. 36-in. 34 V high-brightness wide Trinitron CRT for HDTV. SID Intern. Symp. Digest XXII (1991) 41-44
191. Sato R., and Yamamoto H. Studies on activation of oxide-coated cathodes. Toshiba Rev. 9 10 (1954) 977-983
192. Say D.L. The "high voltage bipotential" approach to enhanced color tube performance. IEEE Trans. Consum. Electron. CE-24 1 (1978) 75-80
193. Sayama T., Maki H., Tominaga N., Wakasono H., Mitsuda K., Miyamoto H., Kitada K., and Harada M. 16:9 color CRTs for HDTV. Natl. Tech. Rep. Matsushita Electr. Ind. Co. 37 5 (1991) 85-92
194. Schwartz J.W. Space charge limitation on the focus of electron beams. RCA Rev. 18 (1957) 1-11
195. Schwartz J.W., and Fogelson M. Recent developments in arc suppression for picture tubes. IEEE Trans. Consum. Electron. CE-25 (1979) 82-90
196. Shafer D., and Turnbull J. The emission carbonate crystallite and oxide cathode performance in electron tubes. Appl. Surf. Set. 8 (1981) 225-230
197. Shirai, S., Takano, H., Fukushima, M., Yamauchi, M, and Iidaka, Y. 1983 A rotationally asymmetric electron lens with elliptical apertures in color picture tubes, Proc. 3rd Intern. Disp. Res. Conf. (Japan Disp. '83) 276-279.
198. Shirai S., and Fukushima M. Quadrupole lens for dynamic focus and astigmatism control in an elliptical aperture lens gun. SID Intern. Symp. Digest XVIII (1987) 162-165
199. Shirai, S., Noguchi, K., Miyamoto, S., and Miyazaki, M. 1989 Enhanced elliptical aperture lens gun, Proc. 9th Intern. Disp. Res. Conf. (Japan Disp. '89) 470-473.
200. Shirai S., and Noguchi K. Reduction of dynamic focus voltage in color CRTs. SID Intern. Symp. Digest XXII (1991) 695-698
201. Shirai, S., Uchida, G., Yoshiwara, Y., Ishii, K., Kinami, T, Mizukami, N., and Yamauchi, M. 1994 Small neck color display tubes with NEAT (Narrow Elliptical Aperture Technology) electron gun, Proc. 14th Intern. Disp. Res. Conf pp. 468-471.
202. Smithgall H.E. Internal surge limiting for picture tubes. IEEE Trans. Consum. Electron. CE-24 3 (1978) 488-491
203. Spangenberg K.R. Vacuum Tubes (1948), McGraw-Hill, New York 46-48
204. Spangenberg K.R. Vacuum Tubes (1948), McGraw-Hill, New York 168-173
205. Spangenberg K.R. Vacuum Tubes (1948), McGraw-Hill, New York 337-349
206. Spangenberg K.R. Vacuum Tubes (1948), McGraw-Hill, New York 349-393
207. Spanjer T.G., Van Gorkum A.A., and Van Soest T.L. A high-resolution electron gun for color projection CRTs. SID Intern. Symp. Digest XVIII (1987) 170-173
208. Spanjer T.G., Van Gorkum A.A., and Van Alphen W.M. Electron guns for projection television. Philips Tech. Rev. 44 11/12 (1989) 348-356
209. Spanjer T.G., Vrijssen G.A.H.M., and van Alphen W.M. A compact high-resolution electron gun with electrostatic focus for projection CRTs. Proc. SID 32 4 (1991) 273-278
210. Sudo M., Ashiya R., Uba T., Murata A., and Amano Y. High-resolution 20 V″ × 20 V″ Trinitron and monochrome CRT. SID Intern. Symp. Digest XVII (1986) 338-341
211. Sugawara S., Kimiya J., Kamohara E., and Fukuda K. A new dynamic-focus electron gun for color CRTs with tri-quadrupole electron lens. SID Intern. Sym. Digest XXVI (1995) 103-106
212. Suzuki H., Masuda M., and Konosu O. Light intensity distribution of a beam spot measured on the CRT screen. Tech. Group Electron. Devices Inst. Telev. Eng. Jpn. ED76-55 (1976) 1-10
213. Suzuki, H., Konosu, O., Ashizaki, S., and Natsuhara, M. 1983 An in-line gun for high-resolution color display tubes, Proc. 3rd Intern. Disp. Res. Conf. (Japan Disp. '83) 612-615.
214. Suzuki H., Ashizaki S., Sugawara K., Natsuhara M., and Muranishi H. Progressive-scanned 33″ 110′ flat-square color CRT. Proc. SID 28 4 (1987) 403-407
215. Suzuki R., Mitsuda K., Muranishi H., Iwasaki K., and Ashizaki S. A 27 V flat square high-resolution color CRT for graphic displays. Pro. SID 31 3 (1990) 221-225
216. Suzuki, H., Tominaga, N., Natsuhara, M., and Sugawara, K. 1992 Improved gun design for self-converging HDTV color CRTs, Proc. I2th Intern. Disp. Res. Conf. (Japan Disp. '92) 269-272.
217. Suzuki H., Ueda Y., Tominaga N., Hiromitsu N., and Sugawara K. Double-quadru-pole DAF gun for self-converging color CRTs. J. SID 1 (1993) 129-134
218. Takano Y. Recent advances in color picture tubes. In: Kazan B. (Ed). Advances in Image Pickup and Display (1983), Academic Press, New York 28-32 6
219. Takenaka S., Hamano E., Koshigoe S., and Kamohara E. New hi-fi focus electron gun for color cathode-ray tube. Toshiba Rev. 121 (1979) 30-35
220. Thierfelder C.W., and Hinnenkamp F.J. Low arc picture tube development using statistically designed experiments. RCA Engineer 25 4 (1979) 27-33
221. Thomas R.E., Gibson J.W., Haas G.A., and Abrams R.H. Thermionic sources for high-brightness electron beams. IEEE Trans. Electron. Devices 37 3 (1990) 850-861
222. Thompson B.J., and Headrick L.B. Space charge limitations on the focus of electron beams. Proc. IRE 28 (1940) 318-324
223. Ueda Y., Sukeno M., and Suzuki H. Beam spot shift in a dynamic astigmatism correction type (DQ-DAF) electron gun. Nuclear Instr. Meth. Phys. Res. Sect. A 363 (1995) 389-392
224. Ueda, Y, Ohta, K., and Itoh, T. 1996 New main lens system with larger lens diameter for color CRTs, Proc. 16th Intern. Disp. Res. Conf. (Euro Disp. '96) 493-496.
225. van den Broek M.H.L.M. Simulation of 3D electron beams with a fitting technique. Optik 71 1 (1985) 27-30
226. van den Broek M.H.L.M. Electron-optical simulation of rotationally symmetric triode electron guns. J. Appl. Phys. 60 11 (1986) 3825-3835
227. van den Broek M.H.L.M. Calculation of the radius of the emitting area and the current in triode electron guns. J. Phys. D: Appl. Phys. 19 (1986) 1389-1399
228. van der Heide P.M.A. OsRu coated impregnated cathode for use in cathode ray tube. Conf. Record 1992 (1992), Tri-Service/NASA Cathode Workshop, Greenbelt, Maryland 155-159
229. van Gorkum A.A. The cup model for the cathode lens in triode electron guns. Optik 71 3 (1985) 93-104
230. van Gorkum A.A., and van den Broek M.L.M. Spot reduction in electron guns using a selective prefocusing lens. J. Appl. Phys. 58 8 (1985) 2902-2908
231. van Gorkum A.A., and Spanjer T.G. A generalized comparison of spherical aberration of magnetic and electrostatic electron lenses. Optik 72 4 (1986) 134-136
232. van Oostrum K.J. CAD in light optics and electron optics. Philips Tech. Rev 42 3 (1985) 69-84
233. van Raalte J.A. CRTs for high-definition television. Inform. Disp. 8 1 (1992) 6-10
234. Washino S., Ueyama Y., and Takenobu S. Development of a new electron gun for color picture tubes. IEEE Trans. Consum. Electron. CE-25 (1979) 481-490
235. Watanabe Y., Nakayama Y., and Saito T. Improved uniform focus character display with CFD. SID Intern. Symp. Digest XVI (1985) 187-189
236. Weber C. The electron beam in a cathode-ray tube. Proc. IEEE 52 (1964) 996-1001
237. Weber C. Analogue and digital methods for investigating electron-optical systems. Philips Res. Rep. 6 (1967)
238. Weber C. Numerical solution of Laplace's and Poisson's equations and the calculation of electron trajectories and electron beams. In: Septier A. (Ed). Focusing of Charged Particles (1967), Academic Press, New York 45-99 1
239. Wehnelt A. Uber den Austritt negativer lonen aus gluhenden Metallverbindungen und damit zusammenhangende Erscheinungen. Ann. der Phys. 14 8 (1904) 425-468
240. Wilson A.H. The theory of electronic semiconductors. Proc. Roy. Soc. London 133 (1931) 458-491
241. Wilson I.M. Theoretical and practical aspects of electron gun design for color picture tubes. IEEE Trans. Consum. Electron. CE-21 (1975) 32-38
242. Yamada Y., Ashiya R., Kikuchi M., and Saita K. A new high-resolution Trinitron picture tube for display application. IEEE Trans. Consum. Electron. CE-26 (1980) 466-472
243. Yamaguchi A., Yamauchi M., and Fukushima M. Development of B-U type electron gun. Tech. Group Electron Devices, Inst. Telev. Eng. Jpn. ED-459 (1979) 17-20
244. 3. Jpn. J. Appl. Phys. 25 7 (1986) 971-975
245. Yamamoto S. Monoatomic layer on electron emissive materials. Oyo Butsuri (Jpn. 57 11 (1988) 1734-1741
246. Yamamoto S., Watanabe I., Sasaki S., Yaguchi T., and Taguchi S. Impregnated cathode operable at low temperatures. Tech. Group Inform. Disp. Inst. Telev. Eng. Jpn. ID89-24 (1989) 9-16
247. Yamane, H., Ishida, R., Ikegami, K., Okuda, S., and Nakanishi, H. 1986 An in-line color CRT with dynamic beam shaping for data display, Proc. 6th Intern. Disp. Res. Conf. (Japan Disp. '86), 160-163.
248. Yamazaki E. Future requirements for high-resolution full-color display. Trans. Inst. Electron. Inform. Commun. Eng. Jpn. E71 ll (1988) 1047-1049
249. Yamazaki H., Nakamura M., and Takahashi T. 32-in. full-square color picture tube. Toshiba Rev. 42 8 (1987) 605-608
250. Yoshida S., Ohkoshi A., and Miyaoka S. The "TRINITRON"-a new color tube. IEEE Trans. Broadcast. Telev. Receivers BTR-14 (1968) 19-27
251. Yoshida S., Ohkoshi A., and Miyaoka S. A wide-deflection angle (114′) Trinitron color picture tube. IEEE Trans. Broadcast. Telev. Receivers ED-19 4 (1973) 231-238
252. Yoshida, S., Ohkoshi, A., and Miyaoka, S. 1974 25 V inch 114 degree Trinitron color picture tube and associated new developments, IEEE Chicago Spring Conference on BTR.
253. Yoshida S. A new 30 V-inch screen size color picture tube. IEEE Trans. Consum. Electron. (1977) 1-7 February
254. Yun N.Y., Kim H.K., Kim H.C., and Kim I.T. An in-line gun with a double-slot beam-forming region developed for flat square 110′ CRTs. SID Intern. Symp. Digest XXV (1994) 655-658
255. Zalm P., and van Stratum A.J.A. Osmium dispenser cathodes. Philips Tech. Rev. 27 3/4 (1966) 69-75
256. Zmuda, E. I., Say, D. L., and Lucchesi, B. F. 1983 The conical field focus (CFF) electron lens-a new dimension in color electron optics, Proc. 3rd Intern. Disp. Res. Conf. (Japan Disp. '83) 268-271.
257. Zworykin V.K. Television with cathode-ray tube for receiver. Radio Engineering 9 (1929) 38-41 Dec
258. Zworykin V.K., Morton G.A., Ramberg E.G., Hillier J., and Vance A.W. Electron Optics and the Electron Microscope (1945), John Wiley and Sons, New York 423-426
259. Zworykin V.K., Morton G.A., Ramberg E.G., Hillier J., and Vance A.W. Electron Optics and the Electron Microscope (1945), John Wiley and Sons, New York 437-456
260. Zworykin V.K., and Morton G.A. Television. 2nd ed. (1954), John Wiley and Sons, New York