Some Calculations On A Hole Forming Mechanism Compatible With An In-Contact Overcoat

E. LaBudde, C. Shevlin, R. LaBudde, Charles Carlino
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Abstract

The development of an optical disk media suitable for applications in the computer industry requires the development of very high performance optical media and disk drive systems. Of major importance is the development of a media with sufficient sensitivity to be used with commercially available low cost and reliable lasers along with long life and reliability of data recoveries after extended periods of storage times. The overall performance of an optical disk is principally determined by the basic overall design as well as the selection of materials and processes used to manufacture the disk. Of particular importance is the need to develop a disk that has a highly stable operating performance in a wide range of environments, in particular the necessity to protect the recording layer from dust and other contaminations is critical in the error rate performance. This paper describes an overall disk design which promises to meet the stringent performance requirements for a computer compatible optical disk system. In addition, a relatively simple overall thermal and optical model will be developed to describe the behavior of the physical principles involved in the optical recording processes. This paper additionally will provide collaborating test and experimental evidence to confirm the validity of the analytical models. The significance of this paper involves the reporting of a full-up disk design, analytical models, and experimental evidence to confirm that a new disk design has been successfully achieved which promises to meet a high performance application.
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一种与接触式涂层兼容的成孔机理的计算
要发展一种适合于计算机工业应用的光盘介质,就需要发展高性能的光盘介质和磁盘驱动系统。最重要的是开发一种具有足够灵敏度的介质,以便与市售的低成本和可靠的激光器一起使用,并且在延长存储时间后具有长寿命和可靠的数据恢复。光盘的整体性能主要取决于基本的总体设计以及用于制造光盘的材料和工艺的选择。特别重要的是需要开发一种在广泛的环境中具有高度稳定运行性能的磁盘,特别是保护记录层免受灰尘和其他污染的必要性对错误率性能至关重要。本文介绍了一种能够满足计算机兼容光盘系统严格性能要求的光盘总体设计方案。此外,将开发一个相对简单的整体热学和光学模型来描述光学记录过程中涉及的物理原理的行为。本文还将提供协作测试和实验证据来验证分析模型的有效性。本文的意义在于报告了一个完整的磁盘设计,分析模型和实验证据,以确认新的磁盘设计已经成功实现,并有望满足高性能应用。
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