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Special issue - 4th International Vacuum Electron Sources Conference in Saratov, Russia, - July 15-19, 2002 - (IVESC 2002) - Preface Gaertner G, Anikin VM, Sinitsyn NI, Bakhtizin RZ, Gulyaev YV |
5 - 17 |
Barium depletion study on impregnated cathodes and lifetime prediction Roquais JM, Poret F, le Doze R, Ricaud JL, Monterrin A, Steinbrunn A |
18 - 24 |
Miniature reservoir cathode - an update Vancil BK, Wintucky EG |
25 - 32 |
Ion bombardment investigations of impregnated cathodes Zhang XB, Gaertner G |
33 - 37 |
Estimation of barium evaporation rate from emission measurement of dispenser cathodes Ravi M, Bhat KS |
38 - 48 |
Scandia-doped tungsten bodies for Sc-type cathodes Wang JS, Wang YM, Tao SW, Li HY, Yang JC, Zhou ML |
49 - 53 |
Investigation and application of impregnated scandate cathodes Li J, Yan SQ, Shao WS, Chen QL, Zhu M |
54 - 58 |
Gas poisoning investigations of scandate and M-type dispenser cathodes Shao WS, Zhang K, Li J, Yan SQ, Chen QL |
59 - 64 |
Correlation of emission capability and longevity of dispenser cathodes with characteristics of tungsten powders Melnikova IP, Vorozheikin VG, Usanov DA |
65 - 71 |
Recent developments in oxide cathode research for CRT applications Barratt DS, Gaertner G |
72 - 77 |
Accelerated life tests of CRT oxide cathodes Gaertner G, Raasch D, Barratt D, Jenkins S |
78 - 86 |
Preliminary results on the chemical characterisation of the cathode nickel - emissive layer interface in oxide cathodes Jenkins SN, Barber DK, Whiting M, Baker MA |
87 - 95 |
Microstructure and emission ability of rare earth oxides doped molybdenum cathodes Yang JC, Nie ZR, Wang YM |
96 - 100 |
Determination of the latent heat of phase transitions in ruthenium by means of a thermionic microscope Emel'yanov VI, Maslennikov OY, Roukhlyada PN |
101 - 104 |
Advanced structure of cathode for gas discharge lamp of super high pressure Kruglenya PA, Maslennikov OY |
105 - 112 |
Model of m-level low-frequency current fluctuations in metal thermionic cathodes Ghots SS, Bakhtizin RZ |
113 - 134 |
Field emission in vacuum micro-electronics Fursey GN |
135 - 140 |
The field emission from carbon nanotubes Fursey GN, Novikov DV, Gyuzhev GA, Kotcheryzhenkov A, Vassiliev PO |
141 - 148 |
Fundamental and applied directions of field emission electronics using nanocluster carbon materials Gulyaev YV, Sinitsyn NI, Torgashov GV, Saveliev SG |
149 - 159 |
Ponderomotive forces effect on the field emission of carbon nanotube films Glukhova OE, Zhbanov AI, Torgashov IG, Sinitsyn NI, Torgashov GV |
160 - 168 |
Peculiarities of the electron field emission from quantum-size structures Litovchenko VG, Evtukh AA, Litvin YM, Goncharuk NM, Hartnagel H, Yilmazoglu O, Pavlidis D |
169 - 177 |
Electron spectroscopy of nanodiamond surface states Belobrov PI, Bursill LA, Maslakov KI, Dementjev AP |
178 - 184 |
Prediction of field emitter cathode lifetime based on measurement of I-V curves Bormashov VS, Nikolski KN, Baturin AS, Sheshin EP |
185 - 190 |
Regression equations modelling diffusion processes Anikin VM, Barulina YA, Goloubentsev AF |
191 - 200 |
Properties of carbon materials, especially fibers, for field emitter applications Sheshin EP |
201 - 208 |
CVD growth of carbon nanotube films on nickel substrates Kukovitsky EF, L'vov SG, Sainov NA, Shustov VA |
209 - 213 |
CNTs grown on the surface of various materials by large volume MP-CVD for VME applications Liu GY, Zhong DY, Xia SH, Cheng SF, Ding YG, Lu YJ, Shao YJ, Li HY, Hangfu LJ, Wang EG |
214 - 221 |
Field emission characteristics of nanostructured thin film carbon materials Obraztsov AN, Volkov AP, Zakhidov AA, Lyashenko DA, Petrushenko YV, Satanovskaya OP |
222 - 227 |
Study of emission centers in amorphous carbon (a-C : H) by field electron and field desorption microscopy Bernatskii DP, Chernyshev AV, Ivanov-Omskii VI |
228 - 231 |
Field emission influenced by residual gas and passivation of field emitters by diamond coating Ko YC, Jeon D |
232 - 236 |
Influence of the interelectrode distance in electrophoretic cold cathode fabrication on the emission uniformity Kurnosov DA, Baturin AS, Bugaev AS, Nikolski KN, Tchesov RG, Sheshin EP |
237 - 241 |
Peculiarities of field emission from silicon carbide films Evtukh AA, Klyui NI, Litovchenko VG, Litvin YM, Korneta OB, Puzikov VM, Semenov AV |
242 - 248 |
Stratum-like structured metal alloy cathode Djubua BC, Polivnikova OV |
249 - 252 |
Investigation of FEAs applied in vacuum electron gun Li XH, Yang CF, Bai GD, Zhang FQ, Liao FJ, Feng JJ, Ding MQ, Du YH |
253 - 259 |
Influence of parameters of field-emission cathodoluminescence light sources on their technical properties Popov MO, Bulakhov SY, Karpov AV, Shiriaev SA, Skorokhodov EN, Suvorov AL |
260 - 264 |
Characterizations of light sources with carbon fiber cathodes Leshukov MY, Baturin AS, Chadaev NN, Sheshin EP |
265 - 268 |
Suppression of secondary electrons from diamond by whisker formation Lee SW, Baik YJ, Kang CJ, Jeon D |
269 - 272 |
Scanning electron and tunneling microscopy of palladium-barium emitters Baiburin VB, Volkov UP, Semenov SV, Semenov AS |
273 - 279 |
A study of secondary electron emission properties of the molybdenum cathode doped with RE2O3 Wang JS, Li HY, Liu J, Wang YM, Zhou ML, Gao YJ, Tao SW, Zhang JX |
280 - 285 |
Peculiarities of constructing planar microminiature current sources based on secondary emission cathode excited by an edge FEA Zakharchenko YF, Sinitsyn NI, Gulyaev YV, Saveliev SG |
286 - 290 |
Liquid carbon surface during explosive emission Fursey GN, Polyakov MA, Shirochin LA, Saveliev AN |
291 - 300 |
A study of noise and collateral phenomena observed in central-cathode magnetron devices Karzhavin IA, Neyman BZ, Gundobin GS, Vislov VI, Lashenko AV, Levande AB |
301 - 309 |
Computer simulation of magnetron devices Bayburin VB, Terentiev AA, Vislov VI, Levande AB, Guriev IK, Sysuev AA |
310 - 317 |
Construction principles for multi-beam microwave power amplifier tubes with distributed transverse-extended interaction, using fea electron source Sinitsyn NI, Zakharchenko YF, Gulyaev YV |