Display material
A technology of phase change materials and display devices, applied in electrical components, nonlinear optics, instruments, etc., can solve problems that hinder the use of phase change materials
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Embodiment 1 to Embodiment 29
[0180] Synthesis of Phase Change Materials
[0181] Various phase change materials according to the invention were prepared. Phase change materials are usually vacuum deposited as thin films. The most common techniques are sputtering or evaporation from prefabricated solid targets made of the desired composition. Exemplary phase change materials were prepared using these techniques as described in Table 1 below.
[0182] Multi-element phase change materials can be synthesized via co-sputtering and / or co-evaporation techniques. In these techniques, a specific composition is achieved by using multiple sources of pure elements deposited simultaneously. The resulting composition of the phase change material as deposited can be achieved by controlling the deposition rate of each source.
[0183] Co-sputtering and co-evaporation techniques are known and routine to those skilled in the art. By way of brief summary, the phase change material according to the present invention can...
Embodiment 30
[0190] Fabrication and testing of devices based on ultrathin films of solid phase change materials (PCMs). These devices exhibit beneficial properties resulting from the properties of the phase change materials used in their fabrication.
[0191] In the following examples, any phase change material (listed in Table 1) in Examples 1 to 29 can be successfully used to prepare a display device showing the following Figure 6 The favorable conversion appearance shown in . described below and Figure 6 The specific results shown are obtained from using TGS phase change material (Te 87 Ge 8 sn 5 ) and STS phase change material (Te 21 sn 28 Se 51 ) obtained from the device.
[0192] The fabricated device had an active area of 50x50 microns, and a crystallization time greater than 1 microsecond was found to enable bi-directional switching functionality in a device of this size.
[0193] Fabrication of solid-state reflective displays (SRDs) using ultrathin phase-change materi...
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