A system of playing media content items determines transitions between pairs of media content items by determining desirable locations in which transitions across the pairs of media content items occur. The system uses a plurality of track features of media content items and determines such track features of each media content item associated with each of transition point candidates, such as beat positions, of that media content item. The system determines similarity in the plurality of track features between the transition point candidates of a first media content item and the transition point candidates for a second media content item being played subsequent to the first media content item. The transition points or portions of the first and second media content items are selected from the transition point candidates for the first and second media content items based on the similarity results.

A system of playing media content items determines transitions between pairs of media content items by determining desirable locations in which transitions across the pairs of media content items occur. The system uses a plurality of track features of media content items and determines such track features of each media content item associated with each of transition point candidates, such as beat positions, of that media content item. The system determines similarity in the plurality of track features between the transition point candidates of a first media content item and the transition point candidates for a second media content item being played subsequent to the first media content item. The transition points or portions of the first and second media content items are selected from the transition point candidates for the first and second media content items based on the similarity results.

[Object] To provide a signal processing apparatus that can perform presentation so that a body motion itself can be aurally felt.

[Solution] There is provided a signal processing apparatus including: a control unit configured to execute, on a basis of a waveform signal generated in accordance with a motion of an attachment portion of a sensor attached to a tool or a body, effect processing for the waveform signal or another waveform signal, the waveform signal being output from the sensor. It is possible for the signal processing apparatus to perform presentation so that a body motion itself can be aurally felt can be provided.

Methods and systems are disclosed to facilitate creating the sensation of vibrotactile movement on the body of a user. Vibratory motors are used to generate a haptic language for music or other stimuli that is integrated into wearable technology. The disclosed system in certain embodiments enables the creation of a family of devices that allow people such as those with hearing impairments to experience sounds such as music or other input to the system. For example, a sound vest or other wearable array transforms musical input to haptic signals so that users can experience their favorite music in a unique way, and can also recognize auditory or other cues in the user's real or virtual reality environment and convey this information to the user using haptic signals.

A system and method for generating wireless signals from the physical movement of a person utilizing a movement detection mechanism attached to the person wherein the system allows a person to manipulate the generated wireless signals to selectively control digital responses which may be in the form of sensory-perceivable outputs such as sounds and/or visual effects, for example, through the person's physical movement. Movement sensors attached to the person (e.g., on one foot or both feet) communicate with other system components such as microprocessors, transmitters and/or tactile interface controls, for example, to wirelessly send signal pulses from a person to a computer or mobile device and allow the person wearing the sensors and/or another person to selectively control the dynamics of the digital responses so to create a unique sensory output.

There is provided a signal processing apparatus including: a control unit that executes, on a basis of a waveform signal generated in accordance with a motion of an attachment portion of a sensor attached to a tool or a body, effect processing for the waveform signal or another waveform signal, the waveform signal being output from the sensor. The signal processing apparatus performs presentation so that a body motion itself can be aurally felt.

A method including: receiving a music input; determining values of musical parameters based on the input; generating a spatial representation of the music input based on the values; and at a plurality of haptic actuators defining a spatial distribution, cooperatively producing a haptic output based on the spatial representation. A method including: mechanically coupling haptic actuators defining a multidimensional array to a user; receiving a music input; generating a spatial representation of the music input defined on a multidimensional space, wherein the multidimensional space and the multidimensional array have equal dimensionality; and, for each haptic actuator: based on the haptic actuator location within the multidimensional array, determining a corresponding location within the multidimensional space; based on a value of the spatial representation associated with the corresponding location, determining an actuation intensity; and controlling the haptic actuator to actuate based on the actuation intensity.

A toroidal actuator is responsive to a teleoperator for providing haptic feedback responsive to a curvature or articulated movement applied to a gripped object. The toroidal actuator surrounds an operator member such as a finger, and is responsive to pneumatic pressure for increasing telepresence force defined by resistance encounter against a teleoperated robotic claw. As the teleoperated claw grips an object, increased pneumatic pressure in the toroidal actuator tends to elongate the toroidal shape in a linear manner and oppose a curvature force applied by an inserted operator finger. Resistive force is based on soft sensing of the gripped object, thus the toroidal actuator applies an increasing resistive force to curvature as the robotic claw closes around a gripped object by solenoid regulated air pressure. A typical assembly includes at least 3 toroidal actuators for two digits and a thumb of an operator.

A musical bodysuit assembly includes a bodysuit that is wearable on a user. A plurality of sound pads is each strategically located on the bodysuit thereby facilitating each of the sound pads to be touched by the user when the user is performing dance moves. Each of the sound pads has a speaker for emitting audible sounds and each of the sound pads has touch sensing capabilities. The speaker in a respective sound pad is turned on to emit an audible sound when the respective sound pad is touched by the user to produce music that corresponds to dance moves performed by the user. A communication unit is in communication with the speaker in each of the sound pads and the communication unit has wireless communication capabilities thereby facilitating the communication unit to download digital audio from a remote data source.

The invention relates to a system for automatically creating a soundtrack, comprising a camera device (1, 1) for recording a user-generated video, at least one wearable sensor (3, 3), and a control unit (2, 2) in communication with the camera device (1, 1) and the at least one wearable sensor (3, 3). The control unit (2, 2) is adapted to generate the soundtrack based on data gathered from the at least one wearable sensor (3, 3) during the recording of the user-generated video. The invention further relates to a method for automatically creating a soundtrack, computer program product, a computer readable memory storage unit computing arrangement or mobile device (1, 11) for executing the method.