Abstract: Provided is an information processing apparatus that is to be connected to a controller apparatus including a push-button, a force sense presentation section, and the push-button. The push-button moves between a first position and a second position when depressed by a finger of a user. The force sense presentation section presents a force sense to the push-button. The information processing apparatus determines, according to a prescribed force sense setting, the aspect of a force sense to be imparted to the push-button, and controls the force sense presentation section of the controller apparatus, according to the determination. Each time a predefined operation is performed, the information processing apparatus changes the force sense setting from a current force sense setting to a different force sense setting.

Abstract: The information processing apparatus is connected to a controller apparatus provided with a push button which moves from a first position to a second position by being pushed by a user's finger. The information processing apparatus acquires the push-in amount of the push button of the controller apparatus, determines whether or not the push-in amount is in a range that excludes the first position and the second position and is configured by two threshold values set between the first position and the second position, and performs predetermined processing on the basis of the result of the determination.

Abstract: Provided is an information processing apparatus that is to be connected to a controller apparatus including a push-button, a force sense presentation section, and the push-button. The push-button moves between a first position and a second position when depressed by a finger of a user. The force sense presentation section presents a force sense to the push-button. The information processing apparatus determines, according to a prescribed force sense setting, the aspect of a force sense to be imparted to the push-button, and controls the force sense presentation section of the controller apparatus, according to the determination. Each time a predefined operation is performed, the information processing apparatus changes the force sense setting from a current force sense setting to a different force sense setting.

Abstract: There are provided a controller apparatus and a control method thereof. The controller apparatus is held by a hand of a user and includes a microphone, a tactile sensation presentation device that presents a tactile sensation to the hand of the user, and a speaker. In addition, during a period in which the user inputs sound from the microphone, the controller apparatus reduces emission of sound of the speaker and causes the tactile sensation presentation device to perform control of tactile sensation presentation.

Abstract: The information processing apparatus is connected to a controller apparatus provided with a push button which moves from a first position to a second position by being pushed by a user's finger. The information processing apparatus acquires the push-in amount of the push button of the controller apparatus, determines whether or not the push-in amount is in a range that excludes the first position and the second position and is configured by two threshold values set between the first position and the second position, and performs predetermined processing on the basis of the result of the determination.

Abstract: In a mobile vehicle 1 having a vehicle body 2, a front wheel 3f, and a rear wheel 3r, the steering control wheel 3f can be steered by a steering actuator 8 about a steering axis Csf which is tilted backward. The steering actuator 8 is controlled by a control device 15. The height a, from a ground surface 110, of the intersection point Ef of the steering axis Csf of the steering control wheel 3f and a virtual straight line connecting the ground contact point of the steering control wheel 3f and the center of axle of the steering control wheel 3f in a basic posture state of the mobile vehicle 1 is set to satisfy a prescribed condition.

Abstract: A communication system includes: a base station configured to perform radio communication with a mobile station; and a control device configured to control a rate of transferring data to the base station based on a radio quality between the mobile station and the base station. A control device includes: a memory; and a processor coupled to the memory and configured to: obtain a radio quality between a mobile station and a base station that performs radio communication with the mobile station; and control a rate of transferring data to the base station based on the radio quality.

Abstract: A base station sends, to a mobile station, first resource allocation information in accordance with a scheduling request from the mobile station. Furthermore, the base station sends, to the mobile station, second resource allocation information based on the buffer status that is reported from the mobile station by using the first resource allocation information. The base station includes a receiving unit and a processor. The receiving unit receives data sent from the mobile station by using the second resource allocation information. When the processor receives a scheduling request from the mobile station before the completion of the reception of data by an amount indicated by the buffer status reported from the mobile station and when a predetermined condition is satisfied, the processor performs control such that the processor sends the second resource allocation information to the mobile station without sending the first resource allocation information.

Abstract: A two-wheeled vehicle 1 includes a steering section 6 which steers a front wheel 4. The steering section includes a steering shaft link 13 which turns about a first steering axis 10 together with a second steering axis 11, a front-wheel support section 14 which turns the front wheel 4 about the second steering axis 11, and a first motor 15 which causes the steering shaft link 13 to turn. A caster angle ? based on the first steering axis 10 is positive or 0. A trail t1 based on the second steering axis 11 is positive. When the two-wheeled vehicle 1 is in a basic posture state on a ground surface 12, the intersection point P3 of the second steering axis 11 and the ground surface 12 lies in front of the intersection point P2 of the first steering axis 10 and the ground surface 12.

Abstract: A wireless communication system includes a serving base station, a mobile station, and peripheral base stations. The mobile station communicates with the serving base station. The serving base station includes a sending unit. The sending unit in the serving base station sends, to the mobile station, a signal indicating that communication is going to be performed in cooperation with the peripheral base stations. The mobile station includes a sending unit. The sending unit in the mobile station broadcasts a predetermined request signal to the peripheral base stations in accordance with the reception of the signal. The peripheral base stations, which have received the predetermined request signal, each include a notifying unit. The notifying units individually notify the serving base station of selection information that is information on the peripheral base station that is going to communicate with the mobile station in cooperation with the serving base station.

Abstract: A control apparatus in a communication system including a base station and terminals, the control apparatus including: a memory, and a processor coupled the memory and configured to receive data addressed to M terminals (where M is a natural number equal to or greater than 2) of the terminals, and to transmit the received data to the base station, such that N terminals (where N is a natural number less than M) of the M terminals are scheduled in the same timing by the base station.

Abstract: In a mobile vehicle 1 having a vehicle body 2, a front wheel 3f, and a rear wheel 3r, the steering control wheel 3f can be steered by a steering actuator 8 about a steering axis Csf which is tilted backward. The steering actuator 8 is controlled by a control device 15. The height a, from a ground surface 110, of the intersection point Ef of the steering axis Csf of the steering control wheel 3f and a virtual straight line connecting the ground contact point of the steering control wheel 3f and the center of axle of the steering control wheel 3f in a basic posture state of the mobile vehicle 1 is set to satisfy a prescribed condition.

Abstract: In a mobile vehicle 1 having a vehicle body 2, a front wheel 3f, and a rear wheel 3r, the steering control wheel 3f can be steered by a steering actuator 8 about a steering axis Csf which is tilted backward. The steering actuator 8 is controlled by a control device 15. The height a, from a ground surface 110, of the intersection point Ef of the steering axis Csf of the steering control wheel 3f and a virtual straight line connecting the ground contact point of the steering control wheel 3f and the center of axle of the steering control wheel 3f in a basic posture state of the mobile vehicle 1 is set to satisfy a prescribed condition.

Abstract: A metal nanonetwork includes metal nanostructures that are joined by metallic bond. The joined part between the metal nanostructures includes a fillet part. In the joined part between the metal nanostructures, the distance between the central axis of one metal nanostructure and the central axis of another metal nanostructure is smaller than the sum of the radii of both metal nanostructures. The metal nanostructure is a metal nanowire. A first method for producing the metal nanonetwork includes a process of forming an oxide film on the outermost surface of the metal nanostructure, and a process of reducing the oxide film at the joined parts of a plurality of the metal nanostructures to thereby join the metal nanostructures.

Abstract: A communication system includes: a base station configured to perform radio communication with a mobile station; and a control device configured to control a rate of transferring data to the base station based on a radio quality between the mobile station and the base station. A control device includes: a memory; and a processor coupled to the memory and configured to: obtain a radio quality between a mobile station and a base station that performs radio communication with the mobile station; and control a rate of transferring data to the base station based on the radio quality.

Abstract: A game device is provided with a position acquisition unit for acquiring the position of an input device for moving the position of a given object on a screen displayed on a display device; an inclination acquisition unit for acquiring the inclination of the input device; and a position computation unit for determining the position of the object on the screen based on both a positional displacement amount of the input device and an inclination displacement amount of the input device.

Abstract: A two-wheeled vehicle 1 includes a steering section 6 which steers a front wheel 4. The steering section includes a steering shaft link 13 which turns about a first steering axis 10 together with a second steering axis 11, a front-wheel support section 14 which turns the front wheel 4 about the second steering axis 11, and a first motor 15 which causes the steering shaft link 13 to turn. A caster angle ? based on the first steering axis 10 is positive or 0. A trail t1 based on the second steering axis 11 is positive. When the two-wheeled vehicle 1 is in a basic posture state on a ground surface 12, the intersection point P3 of the second steering axis 11 and the ground surface 12 lies in front of the intersection point P2 of the first steering axis 10 and the ground surface 12.

Abstract: A control apparatus in a communication system including a base station and terminals, the control apparatus including: a memory, and a processor coupled the memory and configured to receive data addressed to M terminals (where M is a natural number equal to or greater than 2) of the terminals, and to transmit the received data to the base station, such that N terminals (where N is a natural number less than M) of the M terminals are scheduled in the same timing by the base station.

Abstract: A base station sends, to a mobile station, first resource allocation information in accordance with a scheduling request from the mobile station. Furthermore, the base station sends, to the mobile station, second resource allocation information based on the buffer status that is reported from the mobile station by using the first resource allocation information. The base station includes a receiving unit and a processor. The receiving unit receives data sent from the mobile station by using the second resource allocation information. When the processor receives a scheduling request from the mobile station before the completion of the reception of data by an amount indicated by the buffer status reported from the mobile station and when a predetermined condition is satisfied, the processor performs control such that the processor sends the second resource allocation information to the mobile station without sending the first resource allocation information.

Abstract: In a mobile vehicle 1 having a vehicle body 2, a front wheel 3f, and a rear wheel 3r, the steering control wheel 3f can be steered by a steering actuator 8 about a steering axis Csf which is tilted backward. The steering actuator 8 is controlled by a control device 15. The height a, from a ground surface 110, of the intersection point Ef of the steering axis Csf of the steering control wheel 3f and a virtual straight line connecting the ground contact point of the steering control wheel 3f and the center of axle of the steering control wheel 3f in a basic posture state of the mobile vehicle 1 is set to satisfy a prescribed condition.