An electronic mallet controller includes a plurality of bars representing musical notes. Each bar active produces a signal indicative of the respective musical note when struck by an implement, and all adjacent bars are spaced apart with the same spacing. A first user input permits a user to select a lowest diatonic natural note of the range of the musical instrument to thereby define a location of dead notes. A processor circuit interprets each signal as an outputted musical note. Based on the first user input, the processor circuit shifts mapping between the bars and the musical notes to be outputted, causing the dead note locations to be associated with certain of the bars, and wherein the bars at the dead note locations are inactive bars. An indicator is associated with the inactive bars to indicate the location of the dead notes to the user.

The present disclosure discloses a virtual musical instrument based on Ultra-Wide Band (UWB) chip identification, including at least one motion capture component and a conversion component, wherein a UWB transmitting chip is arranged in the at least one motion capture component, and a motion trajectory of the motion capture component is captured through the UWB transmitting chip; a UWB receiving chip is arranged in the conversion component, and a signal of the UWB transmitting chip in the at least one motion capture component is received through the UWB receiving chip; and the virtual musical instrument further includes a sound output component wirelessly connected to the conversion component, wherein the sound output component receives a signal of the conversion component and sends out an audio of a corresponding region.

An electronic mallet controller includes a plurality of bars representing musical notes. Each bar active produces a signal indicative of the respective musical note when struck by an implement, and all adjacent bars are spaced apart with the same spacing. A first user input permits a user to select a lowest diatonic natural note of the range of the musical instrument to thereby define a location of dead notes. A processor circuit interprets each signal as an outputted musical note. Based on the first user input, the processor circuit shifts mapping between the bars and the musical notes to be outputted, causing the dead note locations to be associated with certain of the bars, and wherein the bars at the dead note locations are inactive bars. An indicator is associated with the inactive bars to indicate the location of the dead notes to the user.

A metronome including a sensor capable of detecting an event and a controller in communication with the sensor and which controls the metronomes response to the event. The controller can receive a signal from the sensor indicating an occurrence of the event, the controller, in response, can generate a signal to adjust a characteristic of the metronome in response to the event.

In the preset invention, in an initial stationary state of a drumstick section, a CPU stores each axis component of geomagnetism obtained by a magnetic sensor in a RAM, and obtains each axis component of geomagnetism obtained by the magnetic sensor which is changed by a motion provided to the drumstick section at every predetermined timing. Then, the CPU accumulates each axis component of geomagnetism obtained at every predetermined timing, for each predetermined interval, and conforms each axis component of geomagnetism accumulated thereby to each axis component of geomagnetism stored in the RAM.

A beat recording pen for the recording and editing music and while serving as writing instrument. The device includes a retractable writing instrument disposed in an elongated shaft designed to house a power supply designed to provide electrical power to a transceiver that can transmit and receive digital signals to and from a connected mobile device or computer. The beat recording pen further includes an impact sensor that can detect an audio input signal of an impact event and convert the audio input signal into a digital signal. A micro-controller is disposed within the pen and can record the converted audio input signals detected by the impact sensor and interface with a software application installed on a connected mobile device or computer.

A percussive beater includes an elongated shaft having a first end and a second end; a beater head mechanically coupled to the first end of the elongated shaft; and a transducer mechanically coupled to the beater head, the transducer configured to receive an impact from the beater head and convert the impact into an electrical signal. The percussive beater also includes, in various embodiments, one or more of: an electrical signal filter in electronic communication with the transducer, the electrical signal filter configured to receive the electrical signal, adjust a portion of the electrical signal, and output an adjusted electrical signal; a transducer that is located inside the beater head along with one or more of a wireless connector, an electrical connector or an electrical wire; or a front face that is in direct contact with a padding layer, the padding layer in direct contact with the transducer.

In the preset invention, in an initial stationary state of a drumstick section, a CPU stores acceleration that occurs due to gravity and is obtained by an acceleration sensor in a RAM, obtains, at every predetermined timing, acceleration that occurs due to a motion provided to the drumstick section and is obtained by the acceleration sensor at a predetermined timing, accumulates the accelerations each obtained at the predetermined timing for each predetermined interval, and conforms the accelerations obtained by accumulation to the acceleration stored in the RAM.

A percussion device includes a drumstick assembly. The drumstick assembly includes a drumstick having a base and a tip end, and a drumstick tip secured to the tip end of the drumstick, the drumstick tip including a sensor. The drumstick including the base thereof, and includes at least one control button, a communication element, and a processor in communication with the at least one control button, the drumstick tip and the communication element. The processor is configured to receive a signal from the drumstick tip and to generate output to the communication element. The output so generated includes a signal that specifies a sound file selected by operation of the at least one control button.

The present disclosure relates to a virtual drum kit device. The virtual drum kit device includes a motion capture device and a drum sound processing device separated from each other; where, the motion capture device includes at least two drumsticks, the drumstick including a first cover body, as well as a first battery, a first control printed circuit board assembly (PCBA) board and a vibration motor which are arranged in the first cover body, the first control PCBA board being connected to the battery and the vibration motor separately, and being capable of transmitting an RF signal to the drum sound processing device according to a motion instruction captured by the drumstick, the drum sound processing device includes a second cover body, as well as a second battery and a second control PCBA board which are arranged in the second cover body.