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A Series of Joint VNIIEF/LANL Explosive Magnetic Experiments RHSR-0,1,2 on Radiographic Study of Perturbations Growth at a Copper Liner Boundary with Polyethylene or Water
Vladimir A. Arinin;Vladislav N. Buyko;Oleg M. Burenkov;Boris T. Yegorychev;Vladimir A. Vasyukov;Yuriy N. Gorbachev;Vadim V. Zmushko;Galina G. Ivanova;Andrey V. Ivanovskiy;Anatoliy I. Kuzyayev;Alexander A. Kulagin;Ivan V. Morozov;Vladislav N. Mokhov;Sergey S. Nadezhin;Piotr N. Nizovtsev;Vladimir V. Pavliy;Semen V. Pak;Grigoriy A. Polienko;Alexander A. Petrukhin;Alexander I. Startsev;Alexander N. Skobelev;Nadezhda V. Sokolova;Sergey S. Sokolov;Vyacheslav P. Soloviev;Vasiliy N. Sofronov;E. S. Khoroshailo;Tamara I. Chaika;Valeriy B. Yakubov;Brodie G. Anderson;Walter L. Atchison;Rickey J. Faehl;Irvin R. Lindemuth;Quinn McCulloch;Russell T. Olson;David M. Oro;Robert E. Reinovsky;George Rodriguez;John L. Stokes;Leonard J. Tabaka;Darin T. Westley
In the three joint VNIIEF/LANL experiments RHSR-0,1,2 with a disk EMG and a three-layer liner system (Al-dielectric-Cu) a method of radial radiography was used to study growth of perturbations amplitude at the boundary between copper layer and polyethylene (in experiments RHSR-0,1) and water (in experiment RHSR-2); the growth occurs during the evolution of the Raleigh-Taylor instability of this bo...Show More
A Series of Joint VNIIEF/LANL Explosive Magnetic Experiments RHSR-0,1,2 on Radiographic Study of Perturbations Growth at a Copper Liner Boundary with Polyethylene or Water
Vladimir A. Arinin;Vladislav N. Buyko;Oleg M. Burenkov;Boris T. Yegorychev;Vladimir A. Vasyukov;Yuriy N. Gorbachev;Vadim V. Zmushko;Galina G. Ivanova;Andrey V. Ivanovskiy;Anatoliy I. Kuzyayev;Alexander A. Kulagin;Ivan V. Morozov;Vladislav N. Mokhov;Sergey S. Nadezhin;Piotr N. Nizovtsev;Vladimir V. Pavliy;Semen V. Pak;Grigoriy A. Polienko;Alexander A. Petrukhin;Alexander I. Startsev;Alexander N. Skobelev;Nadezhda V. Sokolova;Sergey S. Sokolov;Vyacheslav P. Soloviev;Vasiliy N. Sofronov;E. S. Khoroshailo;Tamara I. Chaika;Valeriy B. Yakubov;Brodie G. Anderson;Walter L. Atchison;Rickey J. Faehl;Irvin R. Lindemuth;Quinn McCulloch;Russell T. Olson;David M. Oro;Robert E. Reinovsky;George Rodriguez;John L. Stokes;Leonard J. Tabaka;Darin T. Westley
Year: 2005 | Conference Paper |
On the possibility of experimental studies of dynamic material strength according to perturbation growth in magnetically driven layered liner systems
Anatoliy M. Buyko;Oleg M. Burenkov;Vladimir A. Vasyukov;Yuriy N. Gorbachev;Vadim V. Zmushko;Galina G. Ivanova;Andrey V. Ivanovsky;Anatoliy I. Kuzyayev;Vladislav N. Mokhov;Sergey S. Nadezhin;Piotr N. Nizovtsev;Vladimir V. Pavliy;Grigoriy A. Polienko;Alexander A. Petrukhin;Alexander I. Startsev;Nadezhda V. Sokolova;Sergey S. Sokolov;Vyacheslav P. Soloviev;Vasiliy N. Sofronov;Tamara I. Chaika;Valeriy B. Yakubov;Walter L. Atchison;Rickey 1. Faehl;Irvin R. Lindemuth;Robert E. Reinovsky
2004 International Conference on High-Power Particle Beams (BEAMS 2004)
Year: 2004 | Conference Paper |
Cited by: Papers (1)
Explosive magnetic experiments RHSR-l,2 confirmed the designed characteristics of three-layered liner systems (Al-H2O-Cu) and practicability of using water as a medium weakly inhibiting perturbation growth of the liners as opposed to polyethylene that in the experiment RHSR-l showed a high yield strength, ~ 10-20 times higher than the quasi-static one. The paper presents calculations of liners use...Show More
On the possibility of experimental studies of dynamic material strength according to perturbation growth in magnetically driven layered liner systems
Anatoliy M. Buyko;Oleg M. Burenkov;Vladimir A. Vasyukov;Yuriy N. Gorbachev;Vadim V. Zmushko;Galina G. Ivanova;Andrey V. Ivanovsky;Anatoliy I. Kuzyayev;Vladislav N. Mokhov;Sergey S. Nadezhin;Piotr N. Nizovtsev;Vladimir V. Pavliy;Grigoriy A. Polienko;Alexander A. Petrukhin;Alexander I. Startsev;Nadezhda V. Sokolova;Sergey S. Sokolov;Vyacheslav P. Soloviev;Vasiliy N. Sofronov;Tamara I. Chaika;Valeriy B. Yakubov;Walter L. Atchison;Rickey 1. Faehl;Irvin R. Lindemuth;Robert E. Reinovsky
Year: 2004 | Conference Paper |
A series of joint VNIIEF/LANL explosive magnetic experiments RHSR-0, 1, 2 on radiographic study of perturbations growth at a copper liner boundary with polyethylene or water
Vladimir A. Arinin;Anatoliy M. Buyko;Oleg M. Burenkov;Boris T. Yegorychev;Vladimir A. Vasyukov;Yuriy N. Gorbachev;Vadim V. Zmushko;Galina O. Ivanova;Andrey V. Ivanovsky;Anatoliy I. Kuzyayev;Alexander A. Kulagin;Ivan V. Morozov;Vladislav N. Mokhov;Sergey S. Nadezhin;Piotr N. Nizovtsev;Vladimir V. Pavliy;Semen V. Pak;Grigoriy A. Polienko;Alexander A. Petrukhin;Alexander I. Startsev;Alexander N. Skobelev;Nadezhda V. Sokolova;Sergey S. Sokolov;Vyacheslav P. Soloviev;Vasiliy N. Sofronov;E. S. Khoroshailo;Tamara I. Chaika;Valeriy B. Yakubov;Brodie G. Anderson;Walter L. Atchison;Rickey J. Faehl;Irvin R. Lindemuth;Quinn McCulloch;Russell T. Olson;David M. Oro;Robert E. Reinovsky;George Rodriguez;John L. Stokes;Leonard J. Tabaka;Darin T. Westley
2004 International Conference on High-Power Particle Beams (BEAMS 2004)
Year: 2004 | Conference Paper |
In the three joint VNIIEFILANL experiments RHSR-0, 1,2 with a disk EMG and a three-layer liner system (Al-dielectric-eu) a method of radial radiography was used to study growth of perturbations amplitude at the boundary between copper layer and polyethylene (in experiments RHSR-0, 1) and water (in experiment RHSR-2); the growth occurs during the evolution of the Raleigh-Taylor instability of this ...Show More
A series of joint VNIIEF/LANL explosive magnetic experiments RHSR-0, 1, 2 on radiographic study of perturbations growth at a copper liner boundary with polyethylene or water
Vladimir A. Arinin;Anatoliy M. Buyko;Oleg M. Burenkov;Boris T. Yegorychev;Vladimir A. Vasyukov;Yuriy N. Gorbachev;Vadim V. Zmushko;Galina O. Ivanova;Andrey V. Ivanovsky;Anatoliy I. Kuzyayev;Alexander A. Kulagin;Ivan V. Morozov;Vladislav N. Mokhov;Sergey S. Nadezhin;Piotr N. Nizovtsev;Vladimir V. Pavliy;Semen V. Pak;Grigoriy A. Polienko;Alexander A. Petrukhin;Alexander I. Startsev;Alexander N. Skobelev;Nadezhda V. Sokolova;Sergey S. Sokolov;Vyacheslav P. Soloviev;Vasiliy N. Sofronov;E. S. Khoroshailo;Tamara I. Chaika;Valeriy B. Yakubov;Brodie G. Anderson;Walter L. Atchison;Rickey J. Faehl;Irvin R. Lindemuth;Quinn McCulloch;Russell T. Olson;David M. Oro;Robert E. Reinovsky;George Rodriguez;John L. Stokes;Leonard J. Tabaka;Darin T. Westley
Year: 2004 | Conference Paper |
Results of a 100-megaampere liner implosion experiment
R.J. Faehl;B.G. Anderson;D.A. Clark;C.A. Ekdahl;J.H. Goforth;I.R. Lindemuth;R.E. Reinovsky;P.T. Sheehey;T. Peterson;L.J. Tabaka;V.K. Chernyshev;V.N. Mokhov;V.N. Buzin;O.M. Burenkov;A.M. Buyko;V.V. Vakhrushev;S.F. Garanin;B.E. Grinevich;G.G. Ivanova;V.A. Demidov;V.I. Dudoladov;V.V. Zmushko;A.I. Kuzyaev;A.I. Kucherov;B.M. Lovyagin;P.N. Nizovtsev;A.A. Petrukhin;A.I. Pishurov;V.N. Sofronov;S.S. Sokolov;V.P. Solovyev;A.I. Startsev;V.B. Yakubov;E.V. Gubkov
A very high-current liner implosion experiment was conducted, using an explosive magnetic-compression generator (EMG) to deliver a peak current of 102 /spl plusmn/ 3 MA, to implode a 4.0-mm-thick aluminum liner. Analysis of experimental data showed that the inner surface of the liner had attained a velocity of between 6.8-8.4 km/s, consistent with detailed numerical calculations. Both calculations...Show More
Results of a 100-megaampere liner implosion experiment
R.J. Faehl;B.G. Anderson;D.A. Clark;C.A. Ekdahl;J.H. Goforth;I.R. Lindemuth;R.E. Reinovsky;P.T. Sheehey;T. Peterson;L.J. Tabaka;V.K. Chernyshev;V.N. Mokhov;V.N. Buzin;O.M. Burenkov;A.M. Buyko;V.V. Vakhrushev;S.F. Garanin;B.E. Grinevich;G.G. Ivanova;V.A. Demidov;V.I. Dudoladov;V.V. Zmushko;A.I. Kuzyaev;A.I. Kucherov;B.M. Lovyagin;P.N. Nizovtsev;A.A. Petrukhin;A.I. Pishurov;V.N. Sofronov;S.S. Sokolov;V.P. Solovyev;A.I. Startsev;V.B. Yakubov;E.V. Gubkov
MAGO chamber with a special section for additional plasma compression. Calculation results
V.N. Mokhov;O.M. Burenkov;S.F. Garanin;S.D. Kuznetsov;V.I. Mamyshev;A.M. Buyko;A.I. Startsev;V.B. Yakubov;V.K. Chernyshev;V.P. Korchagin;I.V. Morozov;A.N. Demin
Summary form only given. MAGO/MTF concept suggests a two-stage achievement of a thermonuclear reaction ignition:- generation of hot magnetized plasma; compression of the generated plasma and achievement of a thermonuclear reaction. The calculations show that it is possible to separate the processes of formation and compression of hot plasma in MAGO chamber not only in time but also in space by mea...Show More
Concave variable-mass liner
A.M. Buyko;S.F. Garanin;G.G. Ivanova;V.N. Mokhov;V.N. Sofronov;A.I. Startsev;V.B. Yakubov;L.V. Yakubova
Summary form only given, as follows. Liner magnetic implosion experiments usually make use of liners having the shape of right circular cylinder. This paper considers the possibility of using axially symmetric liners of a more complex (concave) shape. As computations show, during concave liner implosion at an appropriate choice of initial curvature (in plane r-z) liner's linear mass can be many ti...Show More
Concave variable-mass liner
A.M. Buyko;G.G. Ivanova;V.N. Mokhov;V.N. Sofronov;A.I. Startsev;V.B. Yakubov;L.V. Yakubova
The liner magnetic implosion experiments typically employ liners having the shape of a right circular cylinder. This paper considers the feasibility to use axially symmetric liners of a more complex (concave) shape. According to computations, the liner linear mass can decrease many-fold during concave liner implosion with an appropriate selection of the initial curvature (in plane r-z). These line...Show More
The study of variable mass liner acceleration in order to create the source of soft X-rays
A.M. Bujko;V.K. Chernyshev;S.F. Garanin;Y.N. Gorbachev;V.A. Demidov;G.G. Ivanova;V.N. Kostyukov;S.D. Kuznetsov;A.I. Kuzyaev;A.B. Mezhevov;V.N. Mokhov;A.A. Petrukhin;V.N. Sofronov;A.I. Startsev;V.B. Yakubov;B.G. Anderson;C.A. Ekdahl;J.L. Kammerdiener;I.R. Lindemuth;R.E. Reinovsky;P.J. Rodriguez;L.R. Veeser;S.M. Younger;W.D. Zerwekh;D.A. Poling;R.C. Kirkpatirck;T.J. Englert;G.F. Kiuttu
12th International Conference on High-Power Particle Beams. BEAMS'98. Proceedings (Cat. No.98EX103)
Year: 1998 | Conference Paper |
High power pulsed energy sources are required to produce a large amount of X-rays. The leading role in creation of ultra-high power stationary machines belongs to the USA national laboratories. VNIIEF has made much progress in creation of ultra-high power explosive magnetic generators (EMG) of a single action, which allow experiments up to 200 MJ of the stored energy and up to 10/sup 13/ W of the ...Show More
The study of variable mass liner acceleration in order to create the source of soft X-rays
A.M. Bujko;V.K. Chernyshev;S.F. Garanin;Y.N. Gorbachev;V.A. Demidov;G.G. Ivanova;V.N. Kostyukov;S.D. Kuznetsov;A.I. Kuzyaev;A.B. Mezhevov;V.N. Mokhov;A.A. Petrukhin;V.N. Sofronov;A.I. Startsev;V.B. Yakubov;B.G. Anderson;C.A. Ekdahl;J.L. Kammerdiener;I.R. Lindemuth;R.E. Reinovsky;P.J. Rodriguez;L.R. Veeser;S.M. Younger;W.D. Zerwekh;D.A. Poling;R.C. Kirkpatirck;T.J. Englert;G.F. Kiuttu
Experimental observation of Rayleigh-Taylor modes in solids with strength
R.E. Reinovsky;W.E. Anderson;W.L. Atchison;C.A. Ekdahl;R.J. Faehl;D.A. Clark;I.R. Liudemuth;D. Morgan;M. Murillo;A.M. Buyko;O.M. Burenkov;V.K. Chernyshev;S.F. Garanin;Yu.N. Gorbachev;B.E. Grenivech;V.V. Zmushko;G.G. Ivanova;A.I. Kuziev;V.N. Mokhov;P.N. Nizovtsev;A.A. Petrukhin;A.I. Pischurov;V.P. Solovyev;N.V. Sokolva;V.N. Sofronov;A.I. Startsev;V.B. Yakuhov
Summary form only given, as follows. Magnetically imploded cylindrical metal shells (Z-pinch liners) can be used to drive a wide variety of hydrodynamics and materials properties experiments if they can be imploded at high velocity with good azimuthal symmetry and axial uniformity. As in all Z-pinches, the outer surface of the liner is magneto-Rayleigh-Taylor (RT) unstable during acceleration and ...Show More
Experimental observation of Rayleigh-Taylor modes in solids with strength
R.E. Reinovsky;W.E. Anderson;W.L. Atchison;C.A. Ekdahl;R.J. Faehl;D.A. Clark;I.R. Liudemuth;D. Morgan;M. Murillo;A.M. Buyko;O.M. Burenkov;V.K. Chernyshev;S.F. Garanin;Yu.N. Gorbachev;B.E. Grenivech;V.V. Zmushko;G.G. Ivanova;A.I. Kuziev;V.N. Mokhov;P.N. Nizovtsev;A.A. Petrukhin;A.I. Pischurov;V.P. Solovyev;N.V. Sokolva;V.N. Sofronov;A.I. Startsev;V.B. Yakuhov
High energy imploding liner experiment HEL-1: experimental results
D.A. Clark;B.G. Anderson;C.A. Ekdahl;R.J. Faehl;J.H. Goforth;I.R. Lindemuth;T.L. Petersen;R.E. Reinovsky;L.J. Tabaka;V.K. Chernyshev;V.N. Mokhov;V.N. Buzin;O.M. Byrenkov;A.M. Bujko;V.V. Vakhruchev;S.F. Garanin;B.E. Grinevich;Y.N. Gorbachov;E.B. Gubkov;B.A. Demidov;V.I. Dudoladov;V.V. Zmushko;A.I. Kuzyaev;A.I. Kucherov;B.M. Lovyagin;Y.I. Matsev;P.N. Nizovtsev;A.A. Petrukhin;A.I. Pishurov;S.S. Sokolov;V.P. Solovjov;A.I. Startsev;V.B. Yakubov
Digest of Technical Papers. 11th IEEE International Pulsed Power Conference (Cat. No.97CH36127)
Year: 1997 | Conference Paper |
Cited by: Papers (4)
The imploding liner is a cylinder of conducting material through which a current is passed in the longitudinal direction. Interaction of the current with its own magnetic field causes the liner to implode. In August, 1996, a high energy liner experiment (HEL-1) was conducted at the All-Russia Scientific Research Institute (VNIIEF) in Sarov, Russia. A 5 tier 1 meter diameter explosive disk generato...Show More
High energy imploding liner experiment HEL-1: experimental results
D.A. Clark;B.G. Anderson;C.A. Ekdahl;R.J. Faehl;J.H. Goforth;I.R. Lindemuth;T.L. Petersen;R.E. Reinovsky;L.J. Tabaka;V.K. Chernyshev;V.N. Mokhov;V.N. Buzin;O.M. Byrenkov;A.M. Bujko;V.V. Vakhruchev;S.F. Garanin;B.E. Grinevich;Y.N. Gorbachov;E.B. Gubkov;B.A. Demidov;V.I. Dudoladov;V.V. Zmushko;A.I. Kuzyaev;A.I. Kucherov;B.M. Lovyagin;Y.I. Matsev;P.N. Nizovtsev;A.A. Petrukhin;A.I. Pishurov;S.S. Sokolov;V.P. Solovjov;A.I. Startsev;V.B. Yakubov
Study of high-energy liner compression in HEL-1 experiment
V.K. Chernyshev;V.N. Mokhov;V.N. Buzin;O.M. Burenkov;A.M. Bujko;V.V. Vakhrushev;S.F. Garanin;B.E. Grinevich;Y.N. Gorbachev;V.A. Demidov;V.I. Dudoladov;V.V. Zmushko;A.I. Kuzyaev;A.I. Kucherov;B.M. Lovyagin;Y.I. Matsev;P.N. Nizovtsev;A.A. Petrukhin;A.I. Pishchurov;S.S. Sokolov;V.P. Solovjov;A.I. Startsev;V.B. Yakubov;B.G. Anderson;C.A. Ekdahl;D. Gofort;D. Clark;I.R. Lindemuth;R.E. Reinovsky;R. Fail;S.M. Younger
Digest of Technical Papers. 11th IEEE International Pulsed Power Conference (Cat. No.97CH36127)
Year: 1997 | Conference Paper |
Cited by: Papers (8)
The paper describes arrangement and the results of the first joint experiment between VNIIEF and LANL with explosive magnetic generators (EMG) of 1 m diameter and a nonevaporating liner. The experiment took place in August 22, 1996. The goal of the experiment was to accelerate magnetically cylindrical relatively thin aluminum liner and to get kinetic energy of 20 MJ or more. As the energy source f...Show More
Study of high-energy liner compression in HEL-1 experiment
V.K. Chernyshev;V.N. Mokhov;V.N. Buzin;O.M. Burenkov;A.M. Bujko;V.V. Vakhrushev;S.F. Garanin;B.E. Grinevich;Y.N. Gorbachev;V.A. Demidov;V.I. Dudoladov;V.V. Zmushko;A.I. Kuzyaev;A.I. Kucherov;B.M. Lovyagin;Y.I. Matsev;P.N. Nizovtsev;A.A. Petrukhin;A.I. Pishchurov;S.S. Sokolov;V.P. Solovjov;A.I. Startsev;V.B. Yakubov;B.G. Anderson;C.A. Ekdahl;D. Gofort;D. Clark;I.R. Lindemuth;R.E. Reinovsky;R. Fail;S.M. Younger
Experimental study of variable mass liner for soft X-ray generation
A.M. Bujko;V.K. Chernyshev;S.F. Garanin;Y.N. Gorbachev;V.A. Demidov;G.G. Ivanova;V.N. Kostyukov;S.D. Kuznetsov;A.I. Kuzyaev;A.B. Mezhevov;V.N. Mokhov;A.A. Petrukhin;V.N. Sofronov;A.I. Startsev;V.B. Yakubov;B.G. Anderson;C.A. Ekdahl;J.L. Kammerdiener;I.R. Lindemuth;R.E. Reinovsky;P.J. Rodriguez;L.R. Veeser;S.M. Younger;W.D. Zerwekh;D.A. Poling;R.C. Kirkpatrick;T.J. Englert;G.F. Kiuttu
Digest of Technical Papers. 11th IEEE International Pulsed Power Conference (Cat. No.97CH36127)
Year: 1997 | Conference Paper |
Relatively soft X-rays (quantum energy about 0.3 keV) may be produced by acceleration of a plasma liner up to a velocity of ∼300 km/s followed by stagnation in a pinch. This means that if the plasma acceleration distance is several cm, the time of plasma motion must be about 0.1 of a microsecond. This results in a difficulty, associated with the problem of plasma stability and the liner having ver...Show More
Experimental study of variable mass liner for soft X-ray generation
A.M. Bujko;V.K. Chernyshev;S.F. Garanin;Y.N. Gorbachev;V.A. Demidov;G.G. Ivanova;V.N. Kostyukov;S.D. Kuznetsov;A.I. Kuzyaev;A.B. Mezhevov;V.N. Mokhov;A.A. Petrukhin;V.N. Sofronov;A.I. Startsev;V.B. Yakubov;B.G. Anderson;C.A. Ekdahl;J.L. Kammerdiener;I.R. Lindemuth;R.E. Reinovsky;P.J. Rodriguez;L.R. Veeser;S.M. Younger;W.D. Zerwekh;D.A. Poling;R.C. Kirkpatrick;T.J. Englert;G.F. Kiuttu
HEL-1: a DEMG based demonstration of solid liner implosions at 100 MA
R.E. Reinovsky;B.G. Anderson;D.A. Clark;C.A. Ekdahl;R.J. Faehl;J.H. Goforth;I.R. Lindemuth;T.L. Petersen;P.T. Sheehey;L.J. Tabaka;V.K. Chernyshev;V.N. Mokhov;V.N. Buzin;O.M. Byrenkov;A.M. Bujko;V.V. Vakhruchev;S.F. Garanin;B.E. Grinevich;Y.N. Gorbachev;E.V. Gubkov;V.A. Demidov;V.I. Dudoladov;V.V. Zmushko;A.I. Kuzyaev;A.I. Kucherov;B.M. Lovyagin;Y.I. Matsev;P.N. Nizovtsev;A.A. Petrukhin;A.I. Pishurov;S.S. Sokolov;V.P. Solovjov;A.I. Startsev;V.B. Yakubov
Digest of Technical Papers. 11th IEEE International Pulsed Power Conference (Cat. No.97CH36127)
Year: 1997 | Conference Paper |
Cited by: Papers (9)
In August 1997, the Los Alamos National Laboratory (LANL) and the All-Russian Scientific Research Institute of Experimental Physics (VNIIEF) conducted a joint experiment in Sarov, Russia to demonstrate the feasibility of applying explosive pulsed power technology to implode large scale, high velocity cylindrical liners. Kilogram mass metal liners imploding at velocities of 5-25 km/sec are useful s...Show More
HEL-1: a DEMG based demonstration of solid liner implosions at 100 MA
R.E. Reinovsky;B.G. Anderson;D.A. Clark;C.A. Ekdahl;R.J. Faehl;J.H. Goforth;I.R. Lindemuth;T.L. Petersen;P.T. Sheehey;L.J. Tabaka;V.K. Chernyshev;V.N. Mokhov;V.N. Buzin;O.M. Byrenkov;A.M. Bujko;V.V. Vakhruchev;S.F. Garanin;B.E. Grinevich;Y.N. Gorbachev;E.V. Gubkov;V.A. Demidov;V.I. Dudoladov;V.V. Zmushko;A.I. Kuzyaev;A.I. Kucherov;B.M. Lovyagin;Y.I. Matsev;P.N. Nizovtsev;A.A. Petrukhin;A.I. Pishurov;S.S. Sokolov;V.P. Solovjov;A.I. Startsev;V.B. Yakubov
Plasma insulation from the walls by a poloidal magnetic field in MAGO chamber
Digest of Technical Papers. 11th IEEE International Pulsed Power Conference (Cat. No.97CH36127)
Year: 1997 | Conference Paper |
A method of introducing a poloidal magnetic field into the MAGO chamber for the plasma magnetic insulation from the walls of an MHD nozzle is offered. A poloidal field is created by a spiral reeled up on a thin cylindrical chamber wall and is introduced through it during a characteristic time of /spl sim/10 ms; in doing so a field penetrates into the internal copper electrode to a depth of /spl si...Show More
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