Abstract: A development program for development of an application program is provided. The development program includes instructions for extracting from a source code of an application program, a predetermined description including at least a first description that designates a data name and a second description that designates a first function or a first variable for obtaining a value and instructions for generating, based on the predetermined description, an additional code to be executed as processing for holding data on a first object of the application program and adding the additional code to the source code of the application program. The additional code is for performing processing for holding, as data corresponding to the first object, a value obtained by the first function designated in the second description or a value of the first variable designated in the second description under the data name designated in the first description.

Abstract: A packaged negative electrode material, comprising a container and a negative electrode material contained in the container, the container having a water vapor transmission rate of 150 g/(m2·d)(40° C./90% RH) or less, and the negative electrode material having a micropore volume of 0.40×10?3 m3/kg or less.

Abstract: A development program for development of an application program with a programming language in which an object is generated based on a type is provided. The development program includes instructions for generating or extracting a first type definition of an object from a source code of the application program and instructions for generating a schema file that describes a data structure of the first type definition.

Abstract: A negative electrode material for a lithium-ion secondary battery includes: graphitic particles having a standard deviation of degree of circularity of from 0.05 to 0.10 in a range in which a cumulative frequency of degree of circularity from a lower degree of circularity is from 10% by particle to 90% by particle in a cumulative frequency distribution with respect to a degree of circularity obtained using a flow-type particle analyzer; and carbon particles having an average degree of circularity of 0.94 or less, the average degree of circularity being obtained using a flow-type particle analyzer.

Abstract: An alarm clock includes: a clock part configured to measure time; a sensor, output of which changes in accordance with a position of a surrounding object; a setting part configured to set a first time based on input by a user; an image generation part configured to generate an image; and a sound control part configured to play an alarm sound when a time measured by the clock part reaches a time determined in accordance with the first time. The image generation part generates an image regardless of output of the sensor in a first time period including a time before the first time, and executes sensor response image generation processing for generating an image in accordance with output of the sensor in a second time period which is different from the first time period.

Abstract: A sound playback device includes: a clock part for measuring time; a storing part configured to store an alarm time; a detection part configured to detect an object in a non-contact manner; a calculation part configured to calculate a magnitude of movement of the object based on detection results; a determination part configured to determine whether a motion condition is satisfied, the motion condition being satisfied when a magnitude of movement of the object is greater than or equal to a certain magnitude; and a sound playback part configured to start a first sound playback processing to play a first sound when the measured time reaches a time determined in accordance with the alarm time, and start a second sound playback processing to play a second sound when the determination part determines that the motion condition is satisfied during execution of the first sound playback processing.

Abstract: A negative electrode material for a lithium ion secondary battery, comprising graphite particles and a low-crystalline carbon layer that covers at least a portion of a surface of the graphite particles, and satisfying at least one of the following A) having two or more peaks in a R-value histogram obtained by a mapping Raman measurement; B) having a variance of 2.0 or more of a maximum peak in a R-value histogram obtained by a mapping Raman measurement; or C) having two or more carbon phases with a different degree of crystallinity.

Abstract: A graphitic carbon material for a negative electrode of a lithium ion secondary battery, in which a crystallite size Lc (002) determined by X-ray diffraction is from 35 nm to 150 nm, and a tap density is 0.90 g/cm3 or more.

Abstract: A graphitic carbon material for a negative electrode of a lithium ion secondary battery, in which a crystallite size Lc (002) determined by X-ray diffraction is from 35 nm to 150 nm, and in a particle size distribution measured by a laser diffraction scattering method, in a case in which a volume cumulative distribution curve is drawn from a small diameter side, a ratio (D90/D10) of a particle size (D90) at which a cumulative amount is 90% to a particle size (D10) at which a cumulative amount is 10% is 8.0 or less.

Abstract: This negative electrode material for lithium ion secondary batteries has a C of 5.5 or less, C being a value obtained from a formula C=(pressure B?pressure A)/(1.70?1.35), where pressure A (kN/cm2) is defined as the pressure at which, when a 3.0 g specimen packed into a column space having a diameter of 15 mm is pressed down at a rate of 10 mm/min, a density of 1.35 g/cm3 is obtained, and pressure B (kN/cm2) is defined as the pressure at which a density of 1.70 g/cm3 is obtained.

Abstract: The negative electrode material for a lithium ion secondary battery contains at least one selected from the group consisting of the spherical natural graphite particle and the composite particle which are aggregates of the spherical natural graphite particles. The spherical natural graphite particles and the composite particles have an average particle diameter (D50) of 12 ?m or less, and satisfy at least one of the following: (1) a linseed oil absorption of from 45 mL/100 g to 65 mL/100 g, or (2) composite particle having an integrated pore volume in a pore size range of from 0.003 ?m to 90 ?m of from 0.59 mL/g to 0.80 mL/g.

Abstract: A negative electrode active material for a lithium ion secondary battery includes graphite particles for which an R value measured by Raman spectrometry is less than 0.27, and an intensity ratio (P1/P2) of a diffraction peak (P1) on a hexagonal structure (101) plane to a diffraction peak (P2) on a rhombohedral structure (101) plane in an X-ray diffraction pattern by CuK? ray is 5.0 or less.

Abstract: A negative electrode material for a lithium ion secondary battery, comprising graphite particles and a low-crystalline carbon layer that covers at least a portion of a surface of the graphite particles, and satisfying at least one of the following A) having two or more peaks in a R-value histogram obtained by a mapping Raman measurement; B) having a variance of 2.0 or more of a maximum peak in a R-value histogram obtained by a mapping Raman measurement; or C) having two or more carbon phases with a different degree of crystallinity.

Abstract: A packaged negative electrode material, comprising a container and a negative electrode material contained in the container, the container having a water vapor transmission rate of 150 g/(m2·d)(40° C./90% RH) or less, and the negative electrode material having a micropore volume of 0.40×10?3 m3/kg or less.

Abstract: A negative electrode for an all-solid-state battery, the negative electrode comprising a negative-electrode active material and a solid electrolyte, the negative-electrode active material comprising a carbon material that has an interplanar spacing (d002) of from 0.336 nm to less than 0.350 nm and a spring-back ratio of 13% or more.

Abstract: A development program for development of an application program is provided. The development program includes instructions for extracting from a source code of an application program, a predetermined description including at least a first description that designates a data name and a second description that designates a first function or a first variable for obtaining a value and instructions for generating, based on the predetermined description, an additional code to be executed as processing for holding data on a first object of the application program and adding the additional code to the source code of the application program. The additional code is for performing processing for holding, as data corresponding to the first object, a value obtained by the first function designated in the second description or a value of the first variable designated in the second description under the data name designated in the first description.

Abstract: A development program for development of an application program with a programming language in which an object is generated based on a type is provided. The development program includes instructions for identifying a type definition in a source code of the application program and instructions for generating a first code that generates an intermediate object for asset data corresponding to each of objects generated based on the identified type definition and adding the generated first code to the source code of the application program. The intermediate object is stored as the asset data.

Abstract: A development program for development of an application program with a programming language in which an object is generated based on a type is provided. The development program includes instructions for generating or extracting a first type definition of an object from a source code of the application program and instructions for generating a schema file that describes a data structure of the first type definition.

Abstract: An anode material for a lithium ion secondary battery including a carbon material satisfying the following (1) to (3), (6), and (7): (1) an average particle size (D50) is 22 ?m or less, (2) D90/D10 of particle sizes is 2.2 or less, (3) a linseed oil absorption amount is 50 mL/100 g or less, (6) a portion of the carbon material with a sphericity of from 0.6 to 0.8 and a particle size of from 10 ?m to 20 ?m is 5% by number or more, and (7) a portion of the carbon material with the sphericity of 0.7 or less and a particle size of 10 ?m or less is 0.3% by number or less.

Abstract: Disclosed is a negative electrode for a secondary battery, the negative electrode including: a negative electrode current collector; and a negative electrode mixture layer provided on the negative electrode current collector. The negative electrode mixture layer contains a graphite powder and a polymer electrolyte. A powder compact spring-back ratio of the graphite powder is 15 to 35%. Furthermore, disclosed is a secondary battery including: a positive electrode; the above-described negative electrode; and an electrolyte layer provided between the positive electrode and the negative electrode. Further, disclosed is a negative electrode material for a secondary battery, the negative electrode material containing a graphite powder and a polymer electrolyte.