Transverse recording using thin film recording heads

Sauter, G. F.; Paul, M. C.; Oberg, P. E.; Kaske, A. D.

doi:10.1109/tmag.1972.1067283

Cited by 9 publications

(1 citation statement)

References 11 publications

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“…4). In the vast majority of systems, the magnetisation is oriented along the writing direction, and we speak about longitudinal recording as opposed to tranversal recording, which never became a commercial system (Atarashi and Shiiki, 1999;Misles et al, 1998;Desserre, 1985;Sauter et al, 1972). In this section we will discuss the different components of longitudinal recording systems, all the way from the recording medium, through heads, positioning systems, and data detection and coding.…”

Section: Longitudinal Recording On Hard Disc and Tapementioning

confidence: 99%

Magnetic Data Storage: Past Present and Future

Thomson

Abelmann

Groenland

Magnetic Nanostructures in Modern Technology

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The design of media, heads, positioning systems and data detection and coding techniques for various generations of magnetic recording systems are discussed. We will start with current systems, such as longitudinal hard disc and tape. Next we will discuss the near future, where perpendicular recording (thicker films, higher stray fields) will address the problem of thermal stability. In the third section we will give an outlook on future developments (patterned media, thermally assisted recording, self assembled arrays of nanoparticles and probe storage).

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Section: Longitudinal Recording On Hard Disc and Tapementioning

confidence: 99%

Magnetic Data Storage: Past Present and Future

Thomson

Abelmann

Groenland

Magnetic Nanostructures in Modern Technology

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Factors affecting the design and construction of thin-film magnetic recording heads

Collins

Preece

1974

Radio Electron. Eng. UK

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Arrays of ferromagnetic FeCo and FeCr binary nanocluster wires

Lee

Huh

Jeong

et al. 2003

Journal of Applied Physics

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High temperature finite-size effects in the magnetic properties of Ni nanowires J. Appl. Phys. 112, 073906 (2012) Equilibrium magnetic states in individual hemispherical permalloy caps Appl. Phys. Lett. 101, 132419 (2012) Magnetic properties of Sm0.1Ca0.9MnO3 nanoparticles J. Appl. Phys. 112, 063921 (2012) Positive exchange bias and upward magnetic relaxation in a Fe-film/CoO-nanoparticle hybrid systemWe report fabrication of the arrays of ferromagnetic FeCo and FeCr binary nanocluster wires ͑NCWs͒ by thermally decomposing the Fe͑CO) 5 /Co 2 (CO) 8 and Fe͑CO) 5 /Cr͑CO) 6 metal carbonyl vapors, respectively, with a resistive heater placed in the middle of a pair of permanent disc magnets. The NCWs are produced through the pileup of binary nanoclusters along the lines of magnetic flux, perpendicular to the substrates attached to a pair of permanent disc magnet surfaces. For both arrays of FeCo and FeCr binary NCWs, the diameter of individual NCWs ranges from 8 to 20 nm and the NCWs exist as bundles with their length up to 2-3 mm. We observed compositional dependence of structure.

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Transverse recording using thin film recording heads

Cited by 9 publications

References 11 publications

Magnetic Data Storage: Past Present and Future

Magnetic Data Storage: Past Present and Future

Factors affecting the design and construction of thin-film magnetic recording heads

Arrays of ferromagnetic FeCo and FeCr binary nanocluster wires

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