Abstract: A mobile terminal device includes a display section having a display screen, an input section having a touch input region on the display screen, and a control section for displaying a plurality of keys. The display screen is provided as a software keyboard where a touch operation on a specific key causes an input of the specific key. In the specific display region on the display screen that can display operation keys on the software keyboard, the control section selects these keys from a previously prepared set of input candidate key groups. In response to a specific operation on the specific display region, the control section allows the plurality of keys to be displayed on the specific display region. In response to touch on a desired key in the specific display region, the control section determines that an input of the key has been performed.

Abstract: According to one embodiment, a memory device includes, a memory cell array including first to fourth sub-arrays, a first bit line coupled to the first sub-array and the second sub-array, a second bit line arranged side by side with the first bit line in a first direction and coupled to the third sub-array and the fourth sub-array, a third bit line arranged at a position different from the first bit line in a second direction and coupled to at least the second sub-array and the third sub-array, a fourth bit line arranged side by side with the third bit line in the first direction and coupled to the fourth sub-array, a first circuit electrically coupled to the first bit line and the second bit line, and a second circuit electrically coupled to the third bit line and the fourth bit line.

Abstract: A method for producing a resin particle dispersion includes: preparing a phase-inverted emulsion by phase inversion emulsification of a resin using an organic solvent and an aqueous medium; and removing the organic solvent from the phase-inverted emulsion by reduced pressure distillation.

Abstract: A memory includes a cell array including first and second sub arrays including memory cells and simultaneously driven in a read or a write operation. First lines are connected to the cells corresponding to one of physical rows, where the physical row is the cells arranged in a first direction in the cell array. Second lines are connected to the cells arranged in a second direction intersecting with the first direction in the cell array. A decoder selects a selection line from among the first lines in accordance with a logical row address corresponding to each of the physical rows and applies a read voltage or a write voltage to the selection line. A sense amplifier detects data from the second lines. Logical row addresses corresponding to physical rows adjacent to a certain physical row among the physical rows differ between the first sub array and the second sub array.

Abstract: According to one embodiment, a memory device includes word lines, bit lines, transistors, capacitors, and a plate line. The transistors include first transistors and second transistors. The first and second transistors are coupled to first and second word lines, respectively. The first and second transistors are arranged to alternate each other in a first direction. The bit lines include first to fourth bit lines arranged sequentially in the first direction. The first and third bit lines are coupled to the other end of the first and second transistors. The second bit line is coupled to the other end of the first transistors and is not coupled to the other end of the second transistors. The fourth bit line is coupled to the other end of the second transistors and is not coupled to the other end of the first transistors.

Abstract: According to one embodiment, a semiconductor device includes a first wiring line provided in a first layer and extending in a first direction, a second wiring line provided in a second layer and extending in the first direction, a first semiconductor layer penetrating the first wiring line without penetrating the second wiring line and extending in a second direction, a second semiconductor layer penetrating the second wiring line without penetrating the first wiring line and extending in the second direction, a first insulating layer provided between the first wiring line and the first semiconductor layer, a second insulating layer provided between the second wiring line and the second semiconductor layer.

Abstract: According to one embodiment, a semiconductor device includes a semiconductor substrate and a capacitor that includes a first electrode extending in a first direction intersecting the semiconductor substrate and a second electrode facing the first electrode. A first conductive layer is above the capacitor and extends in a second direction. A semiconductor layer penetrates the first conductive layer in the first direction. A first conductor can be above or below the first conductive layer and electrically connected to the first conductive layer. A first insulating film is between the first conductive layer and the semiconductor layer. A second conductive layer extends in the second direction and is electrically connected to the first conductive layer via the first conductor.

Abstract: Producing a resin particle dispersion using an apparatus including: two or more resin particle dispersion production lines each including an emulsification tank in which a resin is subjected to phase inversion emulsification using two or more organic solvents and an aqueous medium to obtain a phase-inverted emulsion, a distillation tank in which the organic solvents are removed from the phase-inverted emulsion by reduced pressure distillation to obtain a resin particle dispersion, and plural distillate collection tanks that collect distillates formed during the reduced pressure distillation according to respective target distillate compositions; and a reusable storage tank that collects and stores a distillate collected in at least one collection tank among the distillates collected in the plural collection tanks in each of the two or more production lines, and delivering the distillate to the emulsification tank in at least one production line to reuse the distillate for producing a phase-inverted emulsion.

Abstract: An electrostatic image developing toner includes toner particles containing a binder resin and a release agent. In sections of the toner particles in which the sections of the toner particles have an area St in total and, among sections of domains of the release agent, sections of domains having long diameters of 10 nm or more and 500 nm or less have a total area Sa and sections of domains having long diameters of 1500 nm or more and 3000 nm or less have a total area Sb, an area fraction Sa/St is 2% or more and an area fraction Sb/St is 20% or more.

Abstract: An electrostatic charge image developing toner includes a toner particle containing a binder resin, a release agent, a divalent metal, and a trivalent metal, in which the release agent has a domain diameter of 0.5 ?m or greater and 1.5 ?m or less.

Abstract: A method for producing a resin particle dispersion includes using a resin particle dispersion production apparatus including: two or more resin particle dispersion production lines each including an emulsification tank in which a resin is subjected to phase inversion emulsification using two or more organic solvents and an aqueous medium to thereby obtain a phase-inverted emulsion, a distillation tank in which the organic solvents are removed from the phase-inverted emulsion by reduced pressure distillation to thereby obtain a resin particle dispersion, and plural distillate collection tanks that collect distillates formed during the reduced pressure distillation according to respective target distillate compositions; and a reusable distillate storage tank A that collects and stores a distillate collected in at least one distillate collection tank A among the distillates collected in the plural distillate collection tanks in each of the two or more resin particle dispersion production lines.

Abstract: A method for producing a resin particle dispersion includes: obtaining a phase-inverted emulsion by adding a neutralizer to a resin solution prepared by dissolving a resin having an acid value in an organic solvent to thereby neutralize the resin and then adding an aqueous medium to the resulting resin solution to subject the resin to phase inversion emulsification; and removing the organic solvent from the phase-inverted emulsion. In the course of obtaining the phase-inverted emulsion, a maximum agitation power per unit mass (kg) of the resin when the resin solution containing the aqueous medium added thereto is agitated to perform the phase inversion emulsification is from 0.4 W to 20 W inclusive.

Abstract: A method for producing a resin particle dispersion includes: preparing a phase-inverted emulsion by phase inversion emulsification of a resin using an organic solvent and an aqueous medium; and removing the organic solvent from the phase-inverted emulsion by reduced pressure distillation.

Abstract: A method for producing a resin particle dispersion includes: preparing a phase-inverted emulsion by phase inversion emulsification of a resin using a neutralizer, an organic solvent, and an aqueous medium; and removing the organic solvent from the phase-inverted emulsion to thereby obtain a resin particle dispersion. The acid value A of the resin is from 8 mg KOH/g to 20 mg KOH/g inclusive. The rate of neutralization of the resin with the neutralizer is 60% or more and less than 150%. The organic solvent contains at least one organic solvent B selected from the group consisting of esters and ketones and at least one organic solvent C selected from alcohols. In the phase-inverted emulsion, the acid value A of the resin, the mass Wr (kg) of the resin, the mass Wb (kg) of the organic solvent B, and the mass Wc (kg) of the organic solvent C satisfy relations represented by the following formulas 1 to 6: 30 (Wb+Wc)/(Wr/100) 250, ??formula 1 0.67 Wb/(Wb+Wc) 0.

Abstract: A method for producing a resin particle dispersion includes: preparing a phase-inverted emulsion by phase inversion emulsification of a resin using an organic solvent and an aqueous medium; and removing the organic solvent from the phase-inverted emulsion contained in a distillation tank by reduced pressure distillation. During the reduced pressure distillation, the rate of pressure reduction in an environment in which the pressure inside the distillation tank is equal to or higher than vapor pressure and equal to or lower than (the vapor pressure+5 kPa) when the concentration of the organic solvent in the phase-inverted emulsion is in the range of 30% by mass or less to 1% by mass or more is from 0.01 kPa/min to 0.5 kPa/min inclusive until the pressure inside the distillation tank reaches a preset reduced pressure for the reduced pressure distillation.

Abstract: An electrostatic image developing toner includes toner particles, layered compound particles, and inorganic particles. The content of titanium in the electrostatic image developing toner is 0.1 ppm or more and less than 1,500 ppm.

Abstract: A toner for developing an electrostatic charge image contains toner particles, layered-compound particles, and inorganic particles. The percentage Fa of layered-compound particles free from the toner particles is 5% by volume or more and 20% by volume or less.

Abstract: A toner for developing an electrostatic charge image contains toner particles, layered-compound particles, and inorganic particles. The percentage Fa of layered-compound particles free from the toner particles is 5% by volume or more and 20% by volume or less.

Abstract: An electrostatic charge image developer contains toner particles, layered-compound particles that are particles of a nitrogen-containing layered compound, and a resin-coated carrier that has magnetic particles and a resin layer covering the magnetic particles. The maximum height Ry of the roughness profile as defined in JIS B0601: 1994 of the surface of the resin-coated carrier is 0.01 ?m or more and 0.20 ?m or less.

Abstract: An electrostatic charge image developer contains toner particles, layered-compound particles that are particles of a nitrogen-containing layered compound, and a resin-coated carrier that has magnetic particles and a resin layer covering the magnetic particles. The maximum height Ry of the roughness profile as defined in JIS B0601: 1994 of the surface of the resin-coated carrier is 0.01 ?m or more and 0.20 ?m or less.