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The development of 3D optical data storage on human fingernails using femtosecond lasers. The data is recorded by causing structural changes in the fingernail and read out using fluorescent observation. The increased fluorescence effect is most likely caused by local denaturation of the keratin protein. This technology offers a secure method for data transportation without the risk of theft, imitation, or data loss.
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DATA STORAGE ON FINGERNAILS ABSTRACT: In the rapid development in fields of information technology securing the data is an crucial subject in todays digital age.So to meet such demands the 3-Dimensinal data storage is used which offers a high capacity and powerful processing tool that allows fabrication of 3Dimensinal structure inside a wide range of transparent material. 3D optical data storage is the term given to any form of optical data storage in which information can be recorded and/or read with three-dimensional resolution ...The main aim of storing data on human fingernails is the secured transportation of data without the issues of theft, imitation or any sort of data loss. The data is written onto a fingernail by exposing it to the femtosecond laser pulse which causes structural changes in the fingernail and the increased fluorescence effect is useful for reading out 3-Dimentional recorded data. In order to write data on the nail,a laser pulse of wavelength 800 nanometers is used.The diameter of a data bit is about 0.003 mm and the spacing between the bits is 0.005 mm in three layers at depths of 0.004,0.006, and 0.08 mm within the nail. We realized optical data storage in a human fingernail. A
structural change is recorded by irradiating a focused femtosecond laser pulse and is read out with fluorescent observation by making use of an increased fluorescence intensity. The shape of the structural changes drastically depends on the irradiated pulse energy. The fluorescence
recorded data. We realized optical data storage in a human fingernail. A structural change is recorded by irradiating a focused femtosecond laser pulse and is read out with fluorescent observation by making use of an increased fluorescence intensity. The shape of the structural changes drastically depends on the irradiated pulse
energy. The fluorescence spectrum of the structure coincided with the auto- fluorescence spectra of a fingernail and a heated fingernail. It is suggested that the increased fluorescence is most likely caused by a local denaturation of the keratin protein by the femtosecond laser pulse irradiation. We demonstrate that the
increased fluorescence intensity. The shape of the structural changes drastically depends on the irradiated pulse energy. The fluorescence spectrum of the structure coincided with the auto- fluorescence spectra of a fingernail and a heated fingernail. It is suggested that the increased
fluorescence is most likely caused by a local denaturation of the keratin protein by the femtosecond laser pulse irradiation. We demonstrate that the increased fluorescence effect is useful for reading out three-dimensionally recorded data. We realized optical data storage in a human fingernail. A structural change is recorded by irradiating a
fingernail and a heated fingernail. It is suggested that the increased fluorescence is most likely caused by a local denaturation of the keratin protein by the femtosecond laser pulse irradiation. We demonstrate that the increased fluorescence effect is useful for reading out three-dimensionally We realized optical data storage in a human fingernail. A
structural change is recorded by irradiating a focused femtosecond laser pulse and is read out with fluorescent observation by making use of an increased fluorescence intensity. The shape of the structural changes drastically depends on the irradiated pulse energy. The fluorescence