Abstract:
PROBLEM TO BE SOLVED: To provide a high-definition small-sized liquid crystal panel. SOLUTION: An alignment film 7 is formed on the surface of pixel electrodes 10 to drive a ferroelectric liquid crystal in the side opposite to the face opposing to an insulating film 8, and the groove 13 between pixels as a groove between pixel electrodes 10 is filled with the same material as the alignment film 7 as integrated. Further, a built-in spacer 6 consisting of the same material as the alignment film 7 is formed as integrated with the alignment film 7 by one spacer per 30 pixels (e.g. 5×6 pixels) on the face of the alignment film 7 opposite to the face opposing to the pixel electrode 10.
Abstract:
PROBLEM TO BE SOLVED: To provide a display device smaller than a conventional one, permitting to be convenient to carry and display more information easily to see. SOLUTION: When a display device is not in use with a cover 2 closed, a lens 11R is housed, so to speak, laid in a case 1. When it is in use with the cover open, the lens 11R is exposed outside of the case 1, so to speak, erected. When a user looks into the lens 11R in this state, an image displayed on a display panel 12R is magnified through the lens 11R, and he can see a virtual image formed thereby.
Abstract:
PURPOSE:To simplify a connecting part and increase reliability of a coordinate input panel by constituting a coordinate inputting tablet panel from transparent insulating sheets, and forming a connecting terminal unit for connecting to an outer drive circuit on insulating sheets as one united body with theme. CONSTITUTION:In a coordinate input panel, tablet type electrode patterns 19 and 20 are formed on flexible and transparent insulating sheets 17 and 18 respectively and at the same time connecting parts 21 and 22 for connecting to an outer circuit are formed on sheets 17 and 18 as one united body with theme, and thereby the connection to the outer circuit can be carried out by a FPC connector. Furthermore, adhesive layers 23 and 24 are formed only on the periphery of the panel so that the adhesive layers 23 and 24 do not exist in the coordinate input range.
Abstract:
PURPOSE:To obtain equal magneto-optical characteristics for a medium using a resin substrate to a medium using a glass substrate by subjecting the resin substrate to inverse sputtering so that the surface is modified to have
Abstract:
PURPOSE:To provide the title vertically magnetized film with excellent vertical magnetic characteristics, photomagnetic characteristic, etc., as well as the excellent practical properties such as corrosion resistance, durability, etc., by a method wherein said film is composed of Co-Pd alloy containing a specific amount of Pd and has a film thickness not larger than a specific value. CONSTITUTION:The title vertical magnetized film is composed of Co-Pd alloy containing Pd of 50-90atomic% in thickness not exceeding 1000Angstrom . Said Co-Pd alloy thin film may be formed by sputtering, vacuum evaporation or molecular beam epitaxy, etc., while the application evaporation source may be that of Co-Pd alloy or independent evaporation sources of respective elements. For example, in order to form an alloy thin film by sputtering process, either a Co-Pd alloy target or a compound target of fan-shaped Pd-chip mounted on a circular Co target is applicable. Furthermore, it is recommended that the thickness of said thin film is specified to be 100-500Angstrom in squareness especially in consideration of the application to a vertical magnetic recording medium or photomagnet recording medium.
Abstract:
PURPOSE:To additionally improve coercive force and squareness by forming artificial lattice films alternately laminated with Co and Pd and/or Pt as recording layers and confining the total thickness of the recording layers to 50-800Angstrom . CONSTITUTION:The perpendicular magnetic recording medium consisting of the artificial lattice films alternately laminated with the Co and at least one kind of the Pt or Pd as the recording layers does not contain rare earth elements and is, therefore, highly resistant to corrosion. Particularly the total thickness is confined to 50-800Angstrom , by which the extremely good perpendicular magnetic anisotropy is attained. The coercive force is greatly improved if a metallic film having a prescribed film thickness is formed as an underlying film of such perpendicular magnetic recording medium. The dependency of the magnetic characteristics on the film thickness and the dependency on a gaseous pressure are simultaneously improved.
Abstract:
PURPOSE:To lower Curie point and to improve information transfer speed by adding a 3rd element to the Co layers of a magneto-optical recording medium the recording layers consisting of thin superlattic metallic films or thin modulation structure metallic films alternately laminated with the Co layers and Pt layers. CONSTITUTION:This magneto-optical recording medium is formed, as the recording layers, with the thin superlattice metallic films or thin modulation structure metallic films alternately laminated with Co100-xMx (where M denotes at least one kind among B, C, Al, Si, P, Ti, V, Fe, Ni, Cu, Ga, Ge, Zr, Nb, Mo, In, Sn, Sb, Gd, Tb, Dy, and Ta) 0.5-2.5atom. layers and Pt 1-7atom. layers and the total thickness of the recording layers is 50-500Angstrom . The lower limit of the substitution ratio (x) of the respective elements is 0.1atom.%, whereas the lowering of the Curie point is not effectual when said ratio is lower than the above-mentioned ratios. While the substitution ratio (x) of the above-mentioned respective elements varies to 7-40atom.% according to the elements to be added, there is the possibility that the magneto-optical characteristics are deteriorated on the contrary when the ratio is higher than the above-mentioned values.
Abstract:
PROBLEM TO BE SOLVED: To improve reliability of an inorganic alignment film used for a liquid crystal display element. SOLUTION: The liquid crystal display element 1 is constituted by overlapping a glass substrate 10 as a first base body and a driving substrate 20 as a second base body across a specified gap and charging liquid crystal L in the gap, wherein a material containing a mixed material of two or more kinds of inorganic oxide, e.g. silicon oxide and aluminum oxide is used for alignment films 12, 22 for the liquid crystal L provided on at least one of the glass substrate 10 and driving substrate 20. COPYRIGHT: (C)2007,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To prevent moisture or the like from intruding from the outside into a liquid crystal element by improving adhesion in using an ultraviolet curing adhesive in sticking substrates in the liquid crystal element. SOLUTION: In a method for manufacturing the liquid crystal element 1 which is formed by sticking a glass substrate 10, a first substrate, and a driving substrate 20, a second substrate, holding a specified gap, and driving a liquid crystal L sealed in between, in bonding the glass substrate 10 and the driving substrate 20, the method has: a step to apply the ultraviolet curing type adhesive 30 to a peripheral portion of a counter surface of at least one substrate out of the glass substrate 10 or the driving substrate 20; and a step to cure the adhesive 30 with ultraviolet ray irradiation, and subsequently to heat adhesive 30 at a temperature higher than its glass transition temperature. COPYRIGHT: (C)2006,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To improve electrical characteristics caused by a film structure, while keeping the alignment characteristics by an oblique vapor deposition alignment layer, as they are, and to suppress conduction of ions through an alignment layer and achieve long-term reliability. SOLUTION: Oblique vapor deposition alignment layers 33B, 43B are deposited, over vertical vapor deposition films 33A, 43A on the surfaces of a transparent electrode substrate 30 and a pixel electrode substrate 40, respectively, that are in contact with a vertically aligned liquid crystal 45. By depositing the vertical vapor deposition films 33A, 43A as base films, electrical characteristics caused by the film structure can be improved, while keeping the alignment characteristics of the oblique vapor deposition films 33B, 43B; and further, conduction of ions or the like through the oblique vapor deposition alignment layers 33B, 43B is suppressed to achieve long-term reliability. COPYRIGHT: (C)2006,JPO&NCIPI