An apparatus comprising: an input configured to receive at feast one signal comprising a haptic signal part and an audio signal part; a stream processor configured to separate the at least one signal to generate at least one haptic signal and at least one audio signal; a router configured to route the at least one haptic signal as a first output signal to a first output and the at least one audio signal as a second output signal to a second output; and an output configured to output the processed first output signal such that it generates a haptic effect and the processed second output signal generates an acoustic effect.

A method for performance data transmission control executed by one or more processors includes receiving performance data associated with output timings, the performance data including continuously varying operation data whose value changes continuously; detecting characteristic points of change from the continuously varying operation data; thinning out the continuously varying operation data other than the characteristic points of the change; and generating unit performance data to be transmitted to an external device, based on the performance data in which the characteristic points in the continuously varying operation data have been detected and in which the continuously varying operation data other than the characteristic points have been thinned out.

A method for performance data transmission control executed by one or more processors includes receiving performance data associated with output timings, the performance data including continuously varying operation data whose value changes continuously; detecting characteristic points of change from the continuously varying operation data; thinning out the continuously varying operation data other than the characteristic points of the change; and generating unit performance data to be transmitted to an external device, based on the performance data in which the characteristic points in the continuously varying operation data have been detected and in which the continuously varying operation data other than the characteristic points have been thinned out.

A signal processing apparatus has a first memory in which plural pieces of FIR coefficient data used for implementing an FIR filter algorithm are stored, a second memory which stores plural pieces of input data to be subjected to the FIR filter algorithm, and a processor implements the FIR filter algorithm using the plural pieces of FIR coefficient data stored in the first memory and the plural pieces of input data stored in the second memory as many times as the number corresponding to a designated filter order, in which filter algorithm each piece of coefficient data and each piece of input data are multiplied together and resultant products are summed up. The signal processing apparatus is provided, which can implement plural sorts of FIR filter algorithms of filter order which can be changed flexibly.

A signal processing apparatus has a first memory in which plural pieces of FIR coefficient data used for implementing an FIR filter algorithm are stored, a second memory which stores plural pieces of input data to be subjected to the FIR filter algorithm, and a processor implements the FIR filter algorithm using the plural pieces of FIR coefficient data stored in the first memory and the plural pieces of input data stored in the second memory as many times as the number corresponding to a designated filter order, in which filter algorithm each piece of coefficient data and each piece of input data are multiplied together and resultant products are summed up. The signal processing apparatus is provided, which can implement plural sorts of FIR filter algorithms of filter order which can be changed flexibly.

A smart effects unit disclosed includes effects modules, a control module and a switching device. The control module includes a processor, a user interface and a memory. The processor is connected to an musical instrument and effect modules through an input switch interface, such that the audio signal of the instrument is able to be inputted into the effects modules based on a combination configuration to generate a combined effect audio signal. The combination configuration defines the connection sequence of the plurality of effect modules. The user interface is provided to adjust each effect module and the connection sequence order of effect modules through the input interface to generate the combination configuration, which is stored in a memory. The switching device connected to the control module is provided to switch the control module between different combination configurations based on the combination configurations stored in the memory.

A smart effects unit disclosed includes effects modules, a control module and a switching device. The control module includes a processor, a user interface and a memory. The processor is connected to an musical instrument and effect modules through an input switch interface, such that the audio signal of the instrument is able to be inputted into the effects modules based on a combination configuration to generate a combined effect audio signal. The combination configuration defines the connection sequence of the plurality of effect modules. The user interface is provided to adjust each effect module and the connection sequence order of effect modules through the input interface to generate the combination configuration, which is stored in a memory. The switching device connected to the control module is provided to switch the control module between different combination configurations based on the combination configurations stored in the memory.

A speaker system includes one or more rotating speakers (or speakers with rotating reflectors) that are synchronized in absolute angular position to another rotating speaker or synchronized to audio effects to generated by a signal processing system driving a stationary or rotary speaker. Knowledge of absolute angular position in a multi-rotor speaker array or signal processing system allows for control of rotary position to accomplish acoustic effects otherwise not possible, such as matched-velocity profiles with differential phase control and motion profiles that are not based on simple rotation.

A content control device includes: a plurality of controls to which a plurality of parameters for controlling properties of a content containing at least one of sound and video are respectively assigned, each of the plurality of controls outputting a first indicated value in accordance with an operation amount of the control; and a processor configured to previously create setting information used to determine respective values of the plurality of parameters in accordance with the second indicated value; determine the values of the plurality of parameters corresponding to the second indicated value respectively in accordance with the second indicated value and the setting information; and revise each of the values of the parameters to be determined in accordance with the first indicated value outputted for the control assigned to the parameter.

A content control device includes: a plurality of controls to which a plurality of parameters for controlling properties of a content containing at least one of sound and video are respectively assigned, each of the plurality of controls outputting a first indicated value in accordance with an operation amount of the control; and a processor configured to previously create setting information used to determine respective values of the plurality of parameters in accordance with the second indicated value; determine the values of the plurality of parameters corresponding to the second indicated value respectively in accordance with the second indicated value and the setting information; and revise each of the values of the parameters to be determined in accordance with the first indicated value outputted for the control assigned to the parameter.