Development of electron beam lithography for nanoscale devices

被引:2
作者
Zlobin, VA [1 ]
机构
[1] All Russian Electrotech Inst, Moscow 111250, Russia
来源
Opto-Ireland 2005: Nanotechnology and Nanophotonics | 2005年 / 5824卷
关键词
nanostructures; nanolithography; electron beam lithography; theory;
D O I
10.1117/12.604662
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
A number of modem techniques for microelectronics, microoptics, optoelectronics, and micromechanics are required the lithography of objects presented big arrays of nanoscale structures of the complicated form. The electron beam lithography tools with Gaussian vector scan beam and the projection electron lithography systems (SCALPEL and LEEPL), having a few nanometers resolution, good flexibility, and large work field, have a good outlook for creation of devices of this class. Only the first may be used for direct writing. But the writing speed may decrease dramatically with reducing of beam diameter d as d(-6) in some case. Increasing the resolution of electron beam-resist system and the throughput are the important problems in this case. The paper is directed on development of theory and strategy of electron beam lithography for its application in the nanometer length scale. The achievements of electron beam lithography are compared with success in the field of optical and x-ray lithography.
引用
收藏
页码:23 / 32
页数:10
相关论文
共 28 条
[1]  
[Anonymous], 1980, ELECT BEAM TECHNOLOG
[2]   Simulation and measurement of resist heating in multipass exposure using a 50 kV variably shaped beam system [J].
Babin, S ;
Hartmann, H ;
Kuzmin, IY .
MICROELECTRONIC ENGINEERING, 1999, 46 (1-4) :231-234
[3]   Simulation of resist heating in electron beam lithography [J].
Babin, S ;
Kuzmin, IY .
EMERGING LITHOGRAPHIC TECHNOLOGIES, 1997, 3048 :374-381
[4]   Advanced model for resist heating effect simulation in electron beam lithography [J].
Babin, SV ;
Kozunov, VV ;
Kuzmin, IY .
16TH ANNUAL SYMPOSIUM ON PHOTOMASK TECHNOLOGY AND MANAGEMENT, 1996, 2884 :520-526
[5]   NEW APPROACH TO PROJECTION-ELECTRON LITHOGRAPHY WITH DEMONSTRATED 0.1 MU-M LINEWIDTH [J].
BERGER, SD ;
GIBSON, JM .
APPLIED PHYSICS LETTERS, 1990, 57 (02) :153-155
[6]   22 nm lithography using near field x-rays [J].
Bourdillon, AJ ;
Williams, GP ;
Vladimirsky, Y ;
Boothroyd, CB .
EMERGING LITHOGRAPHIC TECHNOLOGIES VII, PTS 1 AND 2, 2003, 5037 :622-633
[7]   Sloped irradiation techniques in deep X-ray lithography for 3-D shaping of microstructures [J].
Feiertag, G ;
Ehrfeld, W ;
Lehr, H ;
Schmidt, M .
EMERGING LITHOGRAPHIC TECHNOLOGIES, 1997, 3048 :136-145
[8]  
Goldstein J.I., 1975, PRACTICAL SCANNING E
[9]  
HAWKES P. W., 1972, Electron optics and electron microscopy
[10]   Extendibility of chemically amplified resists : Another brick wall? [J].
Hinsberg, W ;
Houle, F ;
Sanchez, M ;
Hoffhagle, J ;
Wallraff, G ;
Medeiros, D ;
Gallatin, G ;
Cobb, J .
ADVANCES IN RESIST TECHNOLOGY AND PROCESSING XX, PTS 1 AND 2, 2003, 5039 :1-14