Abstract: An input device includes: a fixed member; a movable member configured to move in a first direction relative to the fixed member; an operation element configured to move relative to the fixed member; and a spring member held on the movable member and configured to transmit force from the operation element to the movable member. The fixed member includes a first surface, the movable member includes a second surface, the fixed member and the movable member are in contact with each other on the first surface and the second surface, and one of the first surface and the second surface is a curved surface.

Abstract: Magnets are configured to generate absorption force for holding a movable member at each of first and second positions. A power generator includes a mover configured to move in conjunction with the movable member. The power generator is configured to convert kinetic energy of the mover into electrical energy. When an operator moves in a direction in which a first pressing part approaches a second holding part while the movable member is at the first position, a spring member is compressed by the first pressing part and the second holding part. The spring member then generates restoring force for moving the movable member to the second position. When the operator moves in a direction in which a second pressing part approaches a first holding part while the movable member is at the second position, the spring member is compressed by the second pressing part and the first holding part. The spring member then generates restoring force for moving the movable member to the first position.

Abstract: A power generating unit includes a mover moving in conjunction with the movable member and converts kinetic energy of the mover into electrical energy. As an operating member moves in such a direction that a first pressing portion comes closer toward a second holding portion while the movable member is located at a first position, a spring member is compressed by the first pressing portion and the second holding portion and generates restoring force that causes the movable member to move toward a second position. As the operating member moves in such a direction that the second pressing portion comes closer toward the first holding portion while the movable member is located at the second position, the spring member is compressed by the second pressing portion and the first holding portion and generates restoring force that causes the movable member to move toward the first position.

Abstract: Magnets are configured to generate absorption force for holding a movable member at each of first and second positions. A power generator includes a mover configured to move in conjunction with the movable member. The power generator is configured to convert kinetic energy of the mover into electrical energy. When an operator moves in a direction in which a first pressing part approaches a second holding part while the movable member is at the first position, a spring member is compressed by the first pressing part and the second holding part. The spring member then generates restoring force for moving the movable member to the second position. When the operator moves in a direction in which a second pressing part approaches a first holding part while the movable member is at the second position, the spring member is compressed by the second pressing part and the first holding part. The spring member then generates restoring force for moving the movable member to the first position.

Abstract: A power generation device includes a first magnetic body including a side surface that makes contact with or separates from the first side surface of the yoke, a second magnetic body including a side surface that makes contact with or separates from the second side surface of the yoke, and a magnet including a first magnetic pole face and a second magnetic pole face that has a magnetic pole different from a magnetic pole of the first magnetic pole face. The first magnetic pole face is attracted to the attraction surface of the first magnetic body, the second magnetic pole face is attracted to the attraction surface of the second magnetic body, and at least one of the first magnetic body and the second magnetic body rotates in a state of being attracted to the magnet.

Abstract: A power generating unit includes a mover moving in conjunction with the movable member and converts kinetic energy of the mover into electrical energy. As an operating member moves in such a direction that a first pressing portion comes closer toward a second holding portion while the movable member is located at a first position, a spring member is compressed by the first pressing portion and the second holding portion and generates restoring force that causes the movable member to move toward a second position. As the operating member moves in such a direction that the second pressing portion comes closer toward the first holding portion while the movable member is located at the second position, the spring member is compressed by the second pressing portion and the first holding portion and generates restoring force that causes the movable member to move toward the first position.

Abstract: A power generation device includes a power generator and an activator. The power generator includes a piezoelectric element and a first attraction part provided on the piezoelectric element. The piezoelectric element generates power by vibration. The activator warps the piezoelectric element by moving a second attraction part attractingly contacting the first attraction part from a first position to a second position. The piezoelectric element warped by the activator vibrates when attractingly contacting between the first attraction part and the second attraction part is released. The second attraction part of the activator moves to the second position separated from the first attraction part when attractingly contacting of the first attraction part is released. The activator moved to the second position returns to the first position by magnetic attraction force while the first attraction part and the second attraction part are separated away from each other.

Abstract: A power generating unit of the preset invention includes: a power generating apparatus that has a push part, and generates power by pushing the push part; a rotating body that pushes the push part by rotating around a fulcrum; a drive body that rotates the rotating body by moving from a first position to a second position; and a first spring that returns the drive body from the second position to the first position. More preferably, the power generating unit further includes an actuating part; and a second spring disposed between the actuating part and the drive body, wherein the drive body is disposed between the first spring and the second spring. With this configuration, the power generating unit of the present invention can realize diversification of a use of the power generating apparatus.

Abstract: A power generation device of the present invention includes: a first magnet member; a second magnet member having its N-pole reversely disposed to an N-pole of the first magnet member; a center yoke capable of horizontally shifting and disposed between the first magnet member and the second magnet member; a coil disposed at the outer circumference of the center yoke; and a drive member horizontally shifting while holding the first magnet member and the second magnet member. The drive member and the center yoke horizontally shift in a first direction. After the horizontal shift of the center yoke in the first direction stops, the drive member further horizontally shifts in the first direction, and the center yoke horizontally shifts in a second direction opposite to the first direction.

Abstract: A power generation device according to the present disclosure includes a housing, an operation unit that is movable in relation to the housing, a cantilevered vibrating body that has elasticity and is partly fixed to the housing, a piezoelectric element that is provided to the vibrating body and converts vibration energy of the vibrating body into electrical energy when the vibrating body is vibrated in a vibration direction, a slide piece that moves in conjunction with the operation unit and moves in a straight line between a first position and a second position in a sliding direction intersecting the vibration direction in relation to the housing, and a contact piece that is provided to the vibrating body, the contact piece being on a trajectory of the slide piece when the slide piece moves in the straight line, and being configured so as to be in contact with the slide piece and ride over the slide piece to thereby move in the vibration direction, when the slide piece moves from the first position to the s

Abstract: A power generation device includes a first magnetic body including a side surface that makes contact with or separates from the first side surface of the yoke, a second magnetic body including a side surface that makes contact with or separates from the second side surface of the yoke, and a magnet including a first magnetic pole face and a second magnetic pole face that has a magnetic pole different from a magnetic pole of the first magnetic pole face. The first magnetic pole face is attracted to the attraction surface of the first magnetic body, the second magnetic pole face is attracted to the attraction surface of the second magnetic body, and at least one of the first magnetic body and the second magnetic body rotates in a state of being attracted to the magnet.

Abstract: A power generating unit of the preset invention includes: a power generating apparatus that has a push part, and generates power by pushing the push part; a rotating body that pushes the push part by rotating around a fulcrum; a drive body that rotates the rotating body by moving from a first position to a second position; and a first spring that returns the drive body from the second position to the first position. More preferably, the power generating unit further includes an actuating part; and a second spring disposed between the actuating part and the drive body, wherein the drive body is disposed between the first spring and the second spring. With this configuration, the power generating unit of the present invention can realize diversification of a use of the power generating apparatus.

Abstract: A power generation device of the present invention includes: a first magnet member; a second magnet member having its N-pole reversely disposed to an N-pole of the first magnet member; a center yoke capable of horizontally shifting and disposed between the first magnet member and the second magnet member; a coil disposed at the outer circumference of the center yoke; and a drive member horizontally shifting while holding the first magnet member and the second magnet member. The drive member and the center yoke horizontally shift in a first direction. After the horizontal shift of the center yoke in the first direction stops, the drive member further horizontally shifts in the first direction, and the center yoke horizontally shifts in a second direction opposite to the first direction.

Abstract: An object of the present invention is to provide a lens driving device that prevents looseness during movement of the holder caused by repeated contact and separation between sliding contact sections and the shaft, with a simple configuration. The lens driving device includes holder (10) that holds a lens unit and is movable in the direction of the optical axis of the lens unit; columnar shaft (51) extended in the direction of the optical axis; and further guide unit (15) provided on holder (10), that slidingly contacts the side of shaft (51) and guides the moving direction of the holder in the direction of the optical axis of the lens unit while the holder is moving. Guide unit (15) includes multiple sliding contact sections (15a) and (15b) that always continue to slidingly contact the side of the shaft at the same part while the holder is moving.

Abstract: A lens driving device suppresses inward deformation of posts when the winding of a conductive wire generates a winding pressure. A lens driving device 1 includes a holder 10 that holds a lens unit 13. The holder 10 is movable in an optical axis direction of the lens unit 13. A magnet 20 surrounds the lens unit 13 in a radial direction of the lens unit 13. The magnet 20 is fixed to the holder 10. A coil 60 surrounds the holder 10 in the radial direction. The coil 60 faces the magnet in the radial direction. Posts surround the holder in the radial direction. The posts to which the coil is wound extends in the optical axis direction. A beam connects ends of the posts facing the same direction in the optical axis direction with each other. The beam is connected to each end of the posts.

Abstract: A lens driving device accurately and smoothly moves a holder in an optical axis direction even when the distance between lower shaft end supporting portions differ from the distance between upper shaft end supporting holes. The cross-section, in a direction perpendicular to the optical axis direction, of at least one upper shaft end supporting hole 42 among the plurality of upper shaft end supporting holes 41 and 42 arranged in the cover is larger than the cross-section, in a direction perpendicular to the optical axis direction, of a corresponding sub-shaft 52 among the plurality of shafts.

Abstract: A lens driving device prevents its holder from tilting while driving the lens, and has a small number of components, low cost, and small size. The lens driving device includes a base, a holder, magnets, and magnetic plates. The base includes a projection having a hook-shaped cross section. The holder includes a rotation inhibitor which comes into contact with the projection of the base. The holder is supported to the base by one shaft. One magnetic plate is located further from the shaft than the center of the magnet is. The other magnetic plate is located closer to the shaft than the center of the magnet is. The magnetic forces generated between the magnetic plates and the magnets make the holder subjected to a torque on the shaft. The torque allows the rotation inhibitor to be slightly pressed against the projection.

Abstract: A lens drive device includes a lens holder for holding a lens; a cabinet to which the lens holder is attached so as to be capable of being displaced in a direction of an optical axis of the lens; and a drive part that uses a magnetic driving force to displace the holder in the direction of the optical axis. The drive part includes a magnet disposed on the lens holder and a coil opposed to the magnet. Here, the cabinet has a shape of an almost square in a direction perpendicular to the optical axis. Further, the drive part is disposed in a region R between an outer edge of the lens holder and a corner of the cabinet.

Abstract: A lens drive device includes a lens holder for holding a lens; a cabinet to which the lens holder is attached so as to be capable of being displaced in a direction of an optical axis of the lens; and a drive part that uses a magnetic driving force to displace the holder in the direction of the optical axis. The drive part includes a magnet disposed on the lens holder and a coil opposed to the magnet. Here, the cabinet has a shape of an almost square in a direction perpendicular to the optical axis. Further, the drive part is disposed in a region R between an outer edge of the lens holder and a corner of the cabinet.