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62 results about "Molecular memory" patented technology

Molecular memory is a term for data storage technologies that use molecular species as the data storage element, rather than e.g. circuits, magnetics, inorganic materials or physical shapes. The molecular component can be described as a molecular switch, and may perform this function by any of several mechanisms, including charge storage, photochromism, or changes in capacitance. In a perfect molecular memory device, each individual molecule contains a bit of data, leading to massive data capacity. However, practical devices are more likely to use large numbers of molecules for each bit, in the manner of 3D optical data storage (many examples of which can be considered molecular memory devices). The term "molecular memory" is most often used to mean indicate very fast, electronically addressed solid-state data storage, as is the term computer memory. At present, molecular memories are still found only in laboratories.

Two-dimensional Fe(II) complex pressure-caused spin conversion materials, preparation method and application thereof

InactiveCN101712695ANo spin conversionIron organic compoundsMagnetic susceptibilitySpins
The invention provides two-dimensional Fe(II) complex pressure-caused spin conversion materials, a preparation method and application thereof. The invention relates to the field of spin conversion materials science, in particular to pressure-caused spin conversion materials, a preparation method and application thereof. The chemical formula of the two-dimensional Fe(II) complex pressure-caused spin conversion materials is [Fe(L)2(SCN)2]n, wherein L is 1,3-Bis (1H-1,2,4-triazol-1-ylmethyl)-2,4,6-trimethylbenzene ligand. The preparation method chooses L as the ligand to synthesize the two-dimensional Fe(II) complex pressure-caused spin conversion materials. The materials are free from the phenomenon of spin conversion under normal pressure; the results of temperature-change magnetic susceptibility show that antiferromagnetic interaction exists between Fe and Fe; and after pressure is increased, the results of temperature-change magnetic susceptibility show that the phenomenon of spin conversion appears, and the temperature of spin conversion changes from low to high with the increase in pressure, so the temperature of spin conversion can be regulated by regulating external pressure. Therefore, the materials have good application prospects in the fields of nanometer devices, molecular memory, molecular switches and molecule display, as well as industry.
Owner:NANKAI UNIV
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