Abstract: An ink file output method is provided, which includes: generating M (M is an integer of 1 or more) pieces of stroke data SD on the basis of event data generated as M input devices move, respectively; generating N (N is an integer of 1 or more and M or less) kinds of logical names LN (metadata) identifying the M number of input devices; generating a metadata block associating the M pieces of stroke data SD with the N kinds of logical names LN; and writing the M pieces of stroke data SD and the metadata block to an ink file.

Abstract: An ink file output method is provided, which includes: generating M (M is an integer of 1 or more) pieces of stroke data SD on the basis of event data generated as M input devices move, respectively; generating N (N is an integer of 1 or more and M or less) kinds of logical names LN (metadata) identifying the M number of input devices; generating a metadata block associating the M pieces of stroke data SD with the N kinds of logical names LN; and writing the M pieces of stroke data SD and the metadata block to an ink file.

Abstract: An ink file output method is provided, which includes: generating M (M is an integer of 1 or more) pieces of stroke data SD on the basis of event data generated as M input devices move, respectively; generating N (N is an integer of 1 or more and M or less) kinds of logical names LN (metadata) identifying the M number of input devices; generating a metadata block associating the M pieces of stroke data SD with the N kinds of logical names LN; and writing the M pieces of stroke data SD and the metadata block to an ink file.

Abstract: An ink file output method is provided, which includes: generating M (M is an integer of 1 or more) pieces of stroke data SD on the basis of event data generated as M input devices move, respectively; generating N (N is an integer of 1 or more and M or less) kinds of logical names LN (metadata) identifying the M number of input devices; generating a metadata block associating the M pieces of stroke data SD with the N kinds of logical names LN; and writing the M pieces of stroke data SD and the metadata block to an ink file.

Abstract: A position detecting sensor for use with an active stylus includes first electrodes arranged in a first direction, and second electrodes arranged in a second direction intersecting the first direction. The first electrodes and the electrodes are both formed in a mesh form. The first electrodes are located closer to an operating surface with which the active stylus comes into contact than the second electrodes. A width of each of the first electrodes in an arrangement direction of the first electrodes is different from a width of each of the second electrodes in an arrangement direction of the second electrodes. A signal transmitted from the active stylus and received by one of the second electrodes is less shielded by the first electrodes than in a case that the width of each of the first electrodes is same as the width of each of the second electrodes.

Abstract: A position detecting sensor includes a plurality of first electrodes arranged in a first direction; and a plurality of second electrodes arranged in a second direction intersecting the first direction. The plurality of first electrodes and the plurality of second electrodes are formed in a mesh form. One or both of: (i) a width of each of the plurality of first electrodes in an arrangement direction of the plurality of first electrodes is different from a width of each of the plurality of second electrodes in an arrangement direction of the plurality of second electrodes, and (ii) a mesh density of each of the plurality of first electrodes is different from a mesh density of each of the plurality of second electrodes.

Abstract: A position detecting sensor includes a plurality of first electrodes arranged in a first direction; and a plurality of second electrodes arranged in a second direction intersecting the first direction. The plurality of first electrodes and the plurality of second electrodes are formed in a mesh form. One or both of: (i) a width of each of the plurality of first electrodes in an arrangement direction of the plurality of first electrodes is different from a width of each of the plurality of second electrodes in an arrangement direction of the plurality of second electrodes, and (ii) a mesh density of each of the plurality of first electrodes is different from a mesh density of each of the plurality of second electrodes.

Abstract: An ink file output method is provided, which includes: generating M (M is an integer of 1 or more) pieces of stroke data SD on the basis of event data generated as M input devices move, respectively; generating N (N is an integer of 1 or more and M or less) kinds of logical names LN (metadata) identifying the M number of input devices; generating a metadata block associating the M pieces of stroke data SD with the N kinds of logical names LN; and writing the M pieces of stroke data SD and the metadata block to an ink file.

Abstract: An ink file output method is provided, which includes: generating M (M is an integer of 1 or more) pieces of stroke data SD on the basis of event data generated as M input devices move, respectively; generating N (N is an integer of 1 or more and M or less) kinds of logical names LN (metadata) identifying the M number of input devices; generating a metadata block associating the M pieces of stroke data SD with the N kinds of logical names LN; and writing the M pieces of stroke data SD and the metadata block to an ink file.

Abstract: The present invention provides a mask blank including: a transparent substrate, a half-transparent layer for controlling a phase and a transmittance of the exposure light, formed on the transparent substrate, a middle layer formed on the half-transparent layer, and a light-shielding layer formed on the middle layer, wherein the light-shielding layer is constituted with a single metal material not including a transition metal; a film thickness of the light-shielding layer is 40 nm or less; and an optical density of a laminated body, in which three kinds of layers: the half-transparent layer, the middle layer, and the light-shielding layer are laminated, with respect to the exposure light is a value to the extent that the laminated body functions as a light-shielding region or more; the mask blank is used for producing a half tone type phase shift mask, and suitable for a lithography technique on a wafer from 40 nm half pitch and on for its high light-shielding property even thinning the light-shielding pattern

Abstract: The present invention provides a mask blank including: a transparent substrate, a half-transparent layer for controlling a phase and a transmittance of the exposure light, formed on the transparent substrate, a middle layer formed on the half-transparent layer, and a light-shielding layer formed on the middle layer, wherein the light-shielding layer is constituted with a single metal material not including a transition metal; a film thickness of the light-shielding layer is 40 nm or less; and an optical density of a laminated body, in which three kinds of layers: the half-transparent layer, the middle layer, and the light-shielding layer are laminated, with respect to the exposure light is a value to the extent that the laminated body functions as a light-shielding region or more; the mask blank is used for producing a half tone type phase shift mask, and suitable for a lithography technique on a wafer from 40 nm half pitch and on for its high light-shielding property even thinning the light-shielding pattern

Abstract: A substrate for suspension comprises a metallic substrate, an insulating layer formed on the metallic substrate, a conductor layer formed on the insulating layer, and a cover layer covering the conductor layer. The insulating layer and the cover layer are formed from different materials, whose coefficients of hygroscopic expansion are in the range between 3×10?6/% RH and 30×10?6/% RH. The difference between the coefficients of hygroscopic expansion of the two materials is 5×10?6/% RH or less.

Abstract: The present invention provides a substrate for suspension that includes a first structural part including a metal supporting substrate, an insulating layer, a wiring layer, and a cover layer, and a second structural part formed so as to extend continuously from the first structural part and has no metal supporting substrate. A position of an edge of an upper surface of the insulating layer coincides with a position of an edge of the lower surface of the cover layer or the position of the edge of the upper surface of the insulating layer is positioned on a side closer to the wiring layer than to the position of the edge of the lower surface of the cover layer at a boundary region between the first structural part and the second structural part.

Abstract: A substrate for suspension comprises a metallic substrate, an insulating layer formed on the metallic substrate, a conductor layer formed on the insulating layer, and a cover layer covering the conductor layer. The insulating layer and the cover layer are formed from different materials, whose coefficients of hygroscopic expansion are in the range between 3×10?6/% RH and 30×10?6/% RH. The difference between the coefficients of hygroscopic expansion of the two materials is 5×10?6/% RH or less.

Abstract: The present invention provides a substrate for suspension that includes a first structural part including a metal supporting substrate, an insulating layer, a wiring layer, and a cover layer, and a second structural part formed so as to extend continuously from the first structural part and has no metal supporting substrate. A position of an edge of an upper surface of the insulating layer coincides with a position of an edge of the lower surface of the cover layer or the position of the edge of the upper surface of the insulating layer is positioned on a side closer to the wiring layer than to the position of the edge of the lower surface of the cover layer at a boundary region between the first structural part and the second structural part.

Abstract: An ink file output method is provided, which includes: generating M (M is an integer of 1 or more) pieces of stroke data SD on the basis of event data generated as M input devices move, respectively; generating N (N is an integer of 1 or more and M or less) kinds of logical names LN (metadata) identifying the M number of input devices; generating a metadata block associating the M pieces of stroke data SD with the N kinds of logical names LN; and writing the M pieces of stroke data SD and the metadata block to an ink file.

Abstract: A suspension substrate of the present invention includes an insulating layer, a spring material layer, and a plurality of wirings, wherein one wiring of the plurality of wirings includes a head-side wiring part and a plurality of division wiring parts, respectively bifurcated from the head-side wiring part. The spring material layer includes a spring-material-layer main body, a first spring-material-layer separated body and a second spring-material-layer separated body. The division wiring parts of the one wiring are respectively connected with the first spring-material-layer separated body, via a pair of conductive connection parts, respectively extending through the insulating layer. The first spring-material-layer separated body is located on one side relative to the longitudinal axis, while the second spring-material-layer separated body is located on the other side relative to the longitudinal axis.

Abstract: A suspension substrate of the present invention includes an insulating layer, a spring material layer, and a plurality of wirings, wherein one wiring of the plurality of wirings includes a head-side wiring part and a plurality of division wiring parts, respectively bifurcated from the head-side wiring part. The spring material layer includes a spring-material-layer main body, a first spring-material-layer separated body and a second spring-material-layer separated body. The division wiring parts of the one wiring are respectively connected with the first spring-material-layer separated body, via a pair of conductive connection parts, respectively extending through the insulating layer. The first spring-material-layer separated body is located on one side relative to the longitudinal axis, while the second spring-material-layer separated body is located on the other side relative to the longitudinal axis.

Abstract: A substrate for suspension comprises a metallic substrate, an insulating layer formed on the metallic substrate, a conductor layer formed on the insulating layer, and a cover layer covering the conductor layer. The insulating layer and the cover layer are formed from different materials, whose coefficients of hygroscopic expansion are in the range between 3×10?6/% RH and 30×10?6/% RH. The difference between the coefficients of hygroscopic expansion of the two materials is 5×10?6/% RH or less.

Abstract: A substrate for suspension comprises a metallic substrate, an insulating layer formed on the metallic substrate, a conductor layer formed on the insulating layer, and a cover layer covering the conductor layer. The insulating layer and the cover layer are formed from different materials, whose coefficients of hygroscopic expansion are in the range between 3×10?6/% RH and 30×10?6/% RH. The difference between the coefficients of hygroscopic expansion of the two materials is 5×10?6/% RH or less.