Engineering and Technology
| Open Access | Non-Sequential Formatting of Three-Dimensional Optical Carriers and Its Engineering Significance
Kirill Maksimovich Lanskoy , Head of Laser Technology Systems Division OpticTech Project Engineering Center Kazan, Russian Federation, UzbekistanAbstract
Three-dimensional optical information carriers have long been constrained in production throughput by sequential formatting methods, in which servo and positioning marks must be inscribed along continuous spiral tracks one mark at a time. This paper examines the structural bottleneck imposed by sequential recording order, surveys the principal approaches proposed in the volumetric storage literature for addressing it, and evaluates a non-sequential interleaved formatting architecture as an engineering solution to reduce formatting time without sacrificing the geometric precision required for reliable track-following and data retrieval. The architecture organizes formatting marks on nodes of a three-dimensional lattice formed by the intersection of equidistantly spaced cylindrical spiral tracks, equiangular radial planes, and virtual recording layers, and employs interleaved axial and radial recording modes to distribute marks across this lattice in a non-sequential order that substantially reduces mechanical path length. The number of required recording head rotations per formatted layer is reduced from approximately 37,000 to approximately 600, a factor exceeding 60. Engineering implications for multilayer carrier production, sub-volume accuracy control, and concurrent formatting of multiple carriers are assessed against limitations documented in the volumetric optical storage literature.
Keywords
Three-dimensional optical storage, volumetric carrier formatting, interleaved recording, servo marks
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