Cyclotron resonance on galliumnitride in fields up to 700T generated by explosive driven flux compression

Puhlmann, N.; Tatsenko, O. M.; Stolpe, Ines; Маркевцев, И. М.; Ortenberg, M. von; Platonov, V.V.; Селемир, В. Д.; Быков, А. И.; Moiseenko, A. N.; Schikora, D.

doi:10.1016/s0921-4526(00)00697-9

Cited by 8 publications

(4 citation statements)

References 10 publications

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“…Three resonance peaks were revealed in magnetic fields of 90, 270, and 410 T, which gave the effective masses and dispersion of electronic states [17]. This semiconductor is promising for applications in radiation sources.…”

Section: Solid State Physics In Ultrahigh Magnetic Fieldsmentioning

confidence: 94%

Research in ultrahigh magnetic field physics

Boriskov¹,

Bykov²,

Dolotenko³

et al. 2011

Phys.-Usp.

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Section: Solid State Physics In Ultrahigh Magnetic Fieldsmentioning

confidence: 94%

Research in ultrahigh magnetic field physics

Boriskov¹,

Bykov²,

Dolotenko³

et al. 2011

Phys.-Usp.

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“…Experiments on InSb and GaAs done using a CO 2 laser (λ ∼ 10 µm, f ∼ 30 THz) and the single turn coil method were reported in 1974 [21]. Recently a CR experiment performed with up to 700 T by means of flux compression has been reported [35]; details of this will be mentioned later.…”

Section: Static Fieldmentioning

confidence: 97%

“…can be satisfied even at room temperature, where τ is the relaxation time of a carrier. A good example of CR of semiconductor measured in an extremely high magnetic field and at the highest frequency is the CR of GaN as shown in figure 14 [35]. This experiment is quite difficult and unique from a technical point of view and appears to be the most successful example in the experiments performed by the flux compression method at the RFNC [26].…”

Section: Esr and Crmentioning

confidence: 99%

See 1 more Smart Citation

Physics in high magnetic fields

Motokawa¹

2004

Rep. Prog. Phys.

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Along with pressure and temperature, the magnetic field is one of the physical parameters that are used for the investigation of matter. It is an important tool for investigating magnetic and electronic properties from both the microscopic and macroscopic points of view. The interaction energy of a substance with a magnetic field, i.e. Zeeman energy or Landau energy, is small even at a field of 2 T as can be provided by a conventional electromagnet. Compared with the inner energies of a substance, magnetic fields as high as possible have been required for obtaining fine and detailed information on the internal structure and energy states. Due to the strong Maxwell stress, however, it is quite difficult to obtain a magnetic field higher than 50 T and much effort has been dedicated to the development of magnets ever since the laboratory electromagnet was invented.The purpose of this paper is to describe the physical effects that have been investigated and the phenomena that have been revealed using high magnetic fields, as well as the development of magnet technology and measurement technology. In addition, application to materials processing is mentioned as an active application of high magnetic fields.

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High Energy Densities in Laboratories

Фортов

2016

Extreme States of Matter

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Cyclotron resonance on galliumnitride in fields up to 700T generated by explosive driven flux compression

Cited by 8 publications

References 10 publications

Research in ultrahigh magnetic field physics

Research in ultrahigh magnetic field physics

Physics in high magnetic fields

High Energy Densities in Laboratories

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