Review of cathodic arc deposition technology at the start of the new millennium

被引:177
作者
Sanders, DM
Anders, A
机构
[1] Univ Calif Berkeley, Lawrence Berkeley Lab, Berkeley, CA 94720 USA
[2] Lawrence Livermore Natl Lab, Livermore, CA 94550 USA
关键词
vacuum arcs; cathodic arcs; arc plasma deposition; macroparticle filtering; review;
D O I
10.1016/S0257-8972(00)00879-3
中图分类号
TB3 [工程材料学];
学科分类号
0805 ; 080502 ;
摘要
The vacuum cathodic are has been known as a means of producing coatings since the second half of the 19th century. This makes it one of the oldest known vacuum coating techniques. In the last century it has been recognized that the copious quantities of ions produced by the process provides certain coating property advantages. Specifically, ions can be steered and/or accelerated toward the parts to be coated. This, in turn, can provide enhanced adhesion, film density, and composition stoichiometry in the case of compound coatings. The ions generated by the cathodic are have high 'natural' kinetic energy values in the range 20-200 eV, leading to enhanced surface mobility during the deposition process and even ion subplantation. In many cases, dense coatings are achieved even when the ions arrive at non-normal angles. The ion energy can be further manipulated by the plasma immersion biasing technique. Macroparticle contamination has been alleviated by a variety of novel plasma filters. The purpose of this review is to describe recent developments in macroparticle filtering and are control. These developments promise to broaden the range of applications to the semiconductor, data storage, and optical coatings industry. (C) 2000 Elsevier Science B.V. All rights reserved.
引用
收藏
页码:78 / 90
页数:13
相关论文
共 120 条
[1]   EFFECT OF INTRINSIC GROWTH STRESS ON THE RAMAN-SPECTRA OF VACUUM-ARC-DEPOSITED AMORPHOUS-CARBON FILMS [J].
AGER, JW ;
ANDERS, S ;
ANDERS, A ;
BROWN, IG .
APPLIED PHYSICS LETTERS, 1995, 66 (25) :3444-3446
[2]  
AKSENOV II, 1978, INSTRUM EXP TECH+, V21, P1416
[3]   A rectilinear plasma filtering system for vacuum-arc deposition of diamond-like carbon coatings [J].
Aksenov, II ;
Belous, VA ;
Vasil'ev, VV ;
Volkov, YY ;
Strel'nitskij, VE .
DIAMOND AND RELATED MATERIALS, 1999, 8 (2-5) :468-471
[4]  
AKSENOV II, 1978, SOV J PLASMA PHYS, V4, P425
[5]   Carbon films with an sp2 network structure [J].
Alexandrou, I ;
Scheibe, HJ ;
Kiely, CJ ;
Papworth, AJ ;
Amaratunga, GAJ ;
Schultrich, B .
PHYSICAL REVIEW B, 1999, 60 (15) :10903-10907
[6]   METAL PLASMA IMMERSION ION-IMPLANTATION AND DEPOSITION USING VACUUM-ARC PLASMA SOURCES [J].
ANDERS, A ;
ANDERS, S ;
BROWN, IG ;
DICKINSON, MR ;
MACGILL, RA .
JOURNAL OF VACUUM SCIENCE & TECHNOLOGY B, 1994, 12 (02) :815-820
[7]   EFFECT OF DUCT BIAS ON TRANSPORT OF VACUUM-ARC PLASMAS THROUGH CURVED MAGNETIC FILTERS [J].
ANDERS, A ;
ANDERS, S ;
BROWN, IG .
JOURNAL OF APPLIED PHYSICS, 1994, 75 (10) :4900-4905
[8]   Ion charge state distributions of vacuum arc plasmas: The origin of species [J].
Anders, A .
PHYSICAL REVIEW E, 1997, 55 (01) :969-981
[9]   Approaches to rid cathodic arc plasmas of macro- and nanoparticles: a review [J].
Anders, A .
SURFACE & COATINGS TECHNOLOGY, 1999, 120 :319-330
[10]  
ANDERS A, 2000, SURF COAT TECHNOL