Abstract: A position detection device includes a magnet and first to ninth magnetic sensors. The first to ninth magnetic sensors include first to third magnetic sensors. An output of each of the first to third magnetic sensors switches when a shift lever shifts between position M and position N. Switching of outputs of the first and third magnetic sensors among the first to third magnetic sensors and switching of an output of the second magnetic sensor which is a remaining one of the first to third magnetic sensors are inverted when the shift lever shifts between position M and position N.

Abstract: A position detection device includes two detection systems that are respectively fed from power supply systems different from each other, and displace together with a shift lever. Each detection system can output detection patterns with four digits. A detection pattern when being located at a given position is different from a detection pattern when being located at another position. In any detection pattern, outputs of certain two digits among the four digits are set so as to be identical to each other, and to be different from outputs of two other digits. Alternatively, outputs of certain three digits among the four digits are set to be identical to each other, and to be different from an output of another digit.

Abstract: A position detection device detects a current positon of a operation member among positions including a predetermined position and includes a detection system that includes a part to be detected and 3N magnetic sensors S. The operation member can move to the positions in N (?3) different directions from the predetermined position. Movement of the operation member between the predetermined position and another position cause outputs from three of the magnetic sensors to be switched. The magnetic sensors of which outputs are switched by a movement of the operation member between the predetermined position and a first position are all different from the magnetic sensors of which outputs are switched by a movement of the operation member between the predetermined position and a second position.

Abstract: A position detection device detects a current positon of a operation member among positions including a predetermined position and includes a detection system that includes a part to be detected and 3N magnetic sensors S. The operation member can move to the positions in N (?3) different directions from the predetermined position. Movement of the operation member between the predetermined position and another position cause outputs from three of the magnetic sensors to be switched. The magnetic sensors of which outputs are switched by a movement of the operation member between the predetermined position and a first position are all different from the magnetic sensors of which outputs are switched by a movement of the operation member between the predetermined position and a second position.

Abstract: An input device includes a knob, a detector, an electromagnetic brake, an elastic member, and a controller. The detector detects a rotation angle of the knob. The electromagnetic brake regulates rotation of the knob. The elastic member is provided between the knob and the electromagnetic brake. When the current position of the knob in the circumferential direction is not the target position for rotation regulation of the knob, the controller does not activate the electromagnetic brake. When the current position of the knob in the circumferential direction is the target position for rotation regulation of the knob, the controller determines whether to regulate rotation of the knob based on a rotation direction of the knob, or on a rotation angle of the knob that shifts from the holding position of the knob in the circumferential direction due to deformation of the elastic member.

Abstract: A position detection device includes two detection systems that are respectively fed from power supply systems different from each other, and displace together with a shift lever. Each detection system can output detection patterns with four digits. A detection pattern when being located at a given position is different from a detection pattern when being located at another position. In any detection pattern, outputs of certain two digits among the four digits are set so as to be identical to each other, and to be different from outputs of two other digits. Alternatively, outputs of certain three digits among the four digits are set to be identical to each other, and to be different from an output of another digit.

Abstract: An input device is equipped with an operation member that is capable of performing an operation by a hand of an operator; a braking unit configured to brake a movement of the operation member; a speed determiner configured to determine a current speed of the operation member; and a controller configured to cause the braking unit to brake the movement of the operation member in response to the current speed of the operation member.

Abstract: An input device is equipped with an operation member that is capable of performing an operation by a hand of an operator; a braking unit configured to brake a movement of the operation member; a speed determiner configured to determine a current speed of the operation member; and a controller configured to cause the braking unit to brake the movement of the operation member in response to the current speed of the operation member

Abstract: An input device includes a knob, a detector, an electromagnetic brake, an elastic member, and a controller. The detector detects a rotation angle of the knob. The electromagnetic brake regulates rotation of the knob. The elastic member is provided between the knob and the electromagnetic brake. When the current position of the knob in the circumferential direction is not the target position for rotation regulation of the knob, the controller does not activate the electromagnetic brake. When the current position of the knob in the circumferential direction is the target position for rotation regulation of the knob, the controller determines whether to regulate rotation of the knob based on a rotation direction of the knob, or on a rotation angle of the knob that shifts from the holding position of the knob in the circumferential direction due to deformation of the elastic member.

Abstract: A pattern of a rotational operation force is changed by a state of a device of an input object. An input device includes a knob, a rotation shaft body that rotates together with the knob, a rotation controller that is capable of changing a rotational operation force, a detector that detects a rotational position, a controller, and a storage that stores a plurality of patterns. The controller reads a pattern from the storage according to a pattern signal input from an outside and controls the rotation controller when the knob is operated to be rotated according to a rotational position detected by the detector and the read pattern.

Abstract: A pattern of a rotational operation force is changed by a state of a device of an input object. An input device includes a knob, a rotation shaft body that rotates together with the knob, a rotation controller that is capable of changing a rotational operation force, a detector that detects a rotational position, a controller, and a storage that stores a plurality of patterns. The controller reads a pattern from the storage according to a pattern signal input from an outside and controls the rotation controller when the knob is operated to be rotated according to a rotational position detected by the detector and the read pattern.

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: An imaging apparatus includes a lens actuator which displaces a lens so as to slidingly move along a guide member, and a control circuit which controls the lens actuator. The control circuit supplies a driving signal for vibrating the lens in a second direction opposite to a first direction to the lens actuator before the lens is displaced in the first direction along the guide member.

Abstract: A lens driving control apparatus comprising: a lens unit including a lens and a lens barrel in which the lens is incorporated; a frame configured to support the lens unit through springs such that the lens unit moves in a movable range in the optical axis direction; a voice coil motor including a driving coil to drive the lens unit in the optical axis direction; a motor driver configured to supply a driving current to the driving coil; and a driver controlling circuit configured to control the motor driver such that a standby time period to suppress vibration of the lens unit is set every time the lens unit moves a distance as a unit, which distance is obtained by dividing the movable range by a predetermined number.

Abstract: A lens driving control apparatus comprising: a lens unit including a lens and a lens barrel in which the lens is incorporated; a frame configured to support the lens unit through springs such that the lens unit moves in a movable range in the optical axis direction; a voice coil motor including a driving coil to drive the lens unit in the optical axis direction; a motor driver configured to supply a driving current to the driving coil; and a driver controlling circuit configured to control the motor driver such that a standby time period to suppress vibration of the lens unit is set every time the lens unit moves a distance as a unit, which distance is obtained by dividing the movable range by a predetermined number.