Abstract: During a predetermined period, a team competition event is held. If a game regarding the team competition event is performed using a character belonging to a user team to which a user belongs, the user can acquire team medals, and the team medals are added to the user team. If, on the other hand, the game is performed using a character belonging to a team other than the user team to which the user belongs, the team medals are not added to the user team. After the lapse of the predetermined period, in accordance with team medals of each team, the result of the team competition event is displayed.

Abstract: An information processing system acquires biological information of a target and generates output information determined in correspondence with identification information using the identification information associated with the biological information. Then, the output information is output.

Abstract: An in-game event occurring based on a user's input is detected in a game of each time, where the game is performed a plurality of times. A first parameter is increased or decreased based on the in-game event occurring in the game of each time, the first parameter being reset for the game of each time, to calculate a score in the game of each time. A second parameter is increased or decreased based on a result of the game determined based on an assessment parameter different from a final score, the second parameter being used in the game of the plurality of times without being reset for the game of each time.

Abstract: During a predetermined period, a team competition event is held. If a game regarding the team competition event is performed using a character belonging to a user team to which a user belongs, the user can acquire team medals, and the team medals are added to the user team. If, on the other hand, the game is performed using a character belonging to a team other than the user team to which the user belongs, the team medals are not added to the user team. After the lapse of the predetermined period, in accordance with team medals of each team, the result of the team competition event is displayed.

Abstract: There is provided a piezoelectric device including a pressure chamber, a piezoelectric element, and a diaphragm disposed between the pressure chamber and the piezoelectric element. The diaphragm has a vibration region that overlaps the pressure chamber in plan view. The piezoelectric element overlaps the vibration region in plan view. The diaphragm has a crystal plane {110} of a single crystal silicon base, or a crystal plane of a single crystal silicon base of which a Young's modulus and a Poisson's ratio vary according to a crystal orientation.

Abstract: A piezoelectric element includes: a piezoelectric body; and a vibrating plate including single crystal silicon having anisotropy having orientation with a relatively high Young's modulus and orientation with a relatively low Young's modulus (hereinafter, referred to as “low Young's modulus orientation”) as a vibrating material, in which the piezoelectric body and the vibrating plate are laminated on each other so that the low Young's modulus orientation is in a direction along a high expansion and contraction direction among a direction where a degree of expansion and contraction caused according to a support structure of the piezoelectric body is relatively high (hereinafter, referred to as “high expansion and contraction direction”) and a direction where a degree thereof is relatively low.

Abstract: A piezoelectric element includes: a piezoelectric body; and a vibrating plate including single crystal silicon having anisotropy having orientation with a relatively high Poisson's ratio and orientation with a relatively low Poisson's ratio (hereinafter, referred to as “low Poisson's ratio orientation”) as a vibrating material, in which the piezoelectric body and the vibrating plate are laminated on each other so that the low Poisson's ratio orientation is in a direction along a high expansion and contraction direction among a direction where a degree of expansion and contraction caused according to a support structure of the piezoelectric body is relatively high (hereinafter, referred to as “high expansion and contraction direction”) and a direction where a degree thereof is relatively low.

Abstract: An in-game event occurring based on a user's input is detected in a game of each time, where the game is performed a plurality of times. A first parameter is increased or decreased based on the in-game event occurring in the game of each time, the first parameter being reset for the game of each time, to calculate a score in the game of each time. A second parameter is increased or decreased based on a result of the game determined based on an assessment parameter different from a final score, the second parameter being used in the game of the plurality of times without being reset for the game of each time.

Abstract: There is provided a piezoelectric device including a pressure chamber, a piezoelectric element, and a diaphragm disposed between the pressure chamber and the piezoelectric element. The piezoelectric element is disposed on the diaphragm so as to overlap an inner periphery of the pressure chamber in plan view, and has an inner edge on a center side of the pressure chamber with the inner periphery of the pressure chamber being sandwiched within the piezoelectric element in plan view. A shape of the inner edge of the piezoelectric element is such that in the smallest first rectangle, which includes the inner edge in plan view.

Abstract: There is provided a piezoelectric device including a pressure chamber, a piezoelectric element, and a diaphragm disposed between the pressure chamber and the piezoelectric element. The diaphragm has a crystal plane of an anisotropic single crystal silicon base of which a Young's modulus varies according to a direction in the crystal plane. In a vibration region of the diaphragm, which overlaps the pressure chamber in plan view, a first Young's modulus in a first direction, out of Young's modulus in the crystal plane, is higher than a second Young's modulus in the crystal plane in a second direction intersecting the first direction. A width of the piezoelectric element in the first direction is larger than a width of the piezoelectric element in the second direction.

Abstract: A piezoelectric element, in which a piezoelectric body, and a vibrating plate having [111]-oriented single crystal silicon as a vibrating material are laminated is provided. In addition, a manufacturing method of a piezoelectric element including: cutting out a vibrating material to be used in the vibrating plate from a [111]-oriented single crystal silicon wafer; and laminating a piezoelectric body and the vibrating plate is provided.

Abstract: There is provided a piezoelectric device including a pressure chamber, a piezoelectric element, and a diaphragm disposed between the pressure chamber and the piezoelectric element. The diaphragm has a crystal plane of an anisotropic single crystal silicon base of which a Poisson's ratio varies according to a direction in the crystal plane. In a vibration region of the diaphragm, which overlaps the pressure chamber in plan view, the Poisson's ratio of the diaphragm in a short axis direction of the smallest rectangle, which includes the vibration region, is included in a range of a minimum value of the Poisson's ratio in the crystal plane inclusive to an average value of the Poisson's ratios in the crystal plane exclusive.

Abstract: There is provided a piezoelectric device including a pressure chamber, a piezoelectric element, and a diaphragm disposed between the pressure chamber and the piezoelectric element. The diaphragm has a crystal plane of an anisotropic single crystal silicon base of which a Young's modulus varies according to a direction in the crystal plane. In a vibration region of the diaphragm, which overlaps the pressure chamber in plan view, a first Young's modulus in a first direction, out of Young's modulus in the crystal plane, is higher than a second Young's modulus in the crystal plane in a second direction intersecting the first direction. A width of the piezoelectric element in the first direction is larger than a width of the piezoelectric element in the second direction.

Abstract: There is provided a piezoelectric device including a pressure chamber, a piezoelectric element, and a diaphragm disposed between the pressure chamber and the piezoelectric element. The piezoelectric element is disposed on the diaphragm so as to overlap an inner periphery of the pressure chamber in plan view, and has an inner edge on a center side of the pressure chamber with the inner periphery of the pressure chamber being sandwiched within the piezoelectric element in plan view. A shape of the inner edge of the piezoelectric element is such that in the smallest first rectangle, which includes the inner edge in plan view.

Abstract: There is provided a piezoelectric device including a pressure chamber, a piezoelectric element, and a diaphragm disposed between the pressure chamber and the piezoelectric element. The diaphragm has a vibration region that overlaps the pressure chamber in plan view. The piezoelectric element overlaps the vibration region in plan view. The diaphragm has a crystal plane {110} of a single crystal silicon base, or a crystal plane of a single crystal silicon base of which a Young's modulus and a Poisson's ratio vary according to a crystal orientation.

Abstract: There is provided a piezoelectric device including a pressure chamber, a piezoelectric element, and a diaphragm disposed between the pressure chamber and the piezoelectric element. The diaphragm has a crystal plane of an anisotropic single crystal silicon base of which a Poisson's ratio varies according to a direction in the crystal plane. In a vibration region of the diaphragm, which overlaps the pressure chamber in plan view, the Poisson's ratio of the diaphragm in a short axis direction of the smallest rectangle, which includes the vibration region, is included in a range of an average value of the Poisson's ratios in the crystal plane exclusive to a maximum value of the Poisson's ratio in the crystal plane inclusive.

Abstract: To provide a battery pack less subject to vibration, shock, or the like and stable in characteristics. A battery pack includes a unit battery obtained by accommodating, in a casing film, a battery element in which positive and negative electrodes are stacked via separators, the unit battery having a sealing portion obtained by sealing opposing synthetic resin layers formed on inner surface of the casing film; and a lithium ion secondary battery stacked body obtained by stacking a plurality of the unit batteries and winding a fixing tape therearound. A sealing surface of the sealing portion is substantially parallel to a unit battery stacking surface, and an end surface of the sealing portion is brought into contact with the fixing tape.

Abstract: A piezoelectric element, in which a piezoelectric body, and a vibrating plate having [111]-oriented single crystal silicon as a vibrating material are laminated is provided. In addition, a manufacturing method of a piezoelectric element including: cutting out a vibrating material to be used in the vibrating plate from a [111]-oriented single crystal silicon wafer; and laminating a piezoelectric body and the vibrating plate is provided.

Abstract: A piezoelectric element includes: a piezoelectric body; and a vibrating plate including single crystal silicon having anisotropy having orientation with a relatively high Young's modulus and orientation with a relatively low Young's modulus (hereinafter, referred to as “low Young's modulus orientation”) as a vibrating material, in which the piezoelectric body and the vibrating plate are laminated on each other so that the low Young's modulus orientation is in a direction along a high expansion and contraction direction among a direction where a degree of expansion and contraction caused according to a support structure of the piezoelectric body is relatively high (hereinafter, referred to as “high expansion and contraction direction”) and a direction where a degree thereof is relatively low.

Abstract: A piezoelectric element includes: a piezoelectric body; and a vibrating plate including single crystal silicon having anisotropy having orientation with a relatively high Poisson's ratio and orientation with a relatively low Poisson's ratio (hereinafter, referred to as “low Poisson's ratio orientation”) as a vibrating material, in which the piezoelectric body and the vibrating plate are laminated on each other so that the low Poisson's ratio orientation is in a direction along a high expansion and contraction direction among a direction where a degree of expansion and contraction caused according to a support structure of the piezoelectric body is relatively high (hereinafter, referred to as “high expansion and contraction direction”) and a direction where a degree thereof is relatively low.