Vibration applying apparatus

Abstract

A vibration applying apparatus includes a bone conduction speaker, a pedestal to which the bone conduction speaker is fixed, and supporting units on which a stringed instrument is placed, and is designed to transmit natural vibrations emanating from the bone conduction speaker to one of the supporting units via the pedestal.

Claims

1. A vibration applying apparatus, comprising: a bone conduction speaker; a mounting unit on which a vibration target object is mounted; a vibration transmission unit configured to transmit a natural vibration emanating from the bone conduction speaker to the mounting unit; and a control unit configured to change a frequency of the natural vibration emanating from the bone conduction speaker, based on a result of determining whether an appropriate vibration is applied to the vibration target object, taking a natural vibration with which a stringed instrument resonates as a standard.

2. The vibration applying apparatus according to claim 1, further comprising an airtight unit that covers the vibration target object placed on the mounting unit and that is kept airtight inside.

3. The vibration applying apparatus according to claim 1, further comprising handles for carriage.

4. The vibration applying apparatus according to claim 1, wherein the vibration target object is a stringed instrument or wood that is a material for the stringed instrument.

Description

BRIEF DESCRIPTION OF DRAWINGS

(1) FIG. 1 is a view for explaining a system according to one embodiment.

(2) FIG. 2 illustrates a vibration applying apparatus according to the embodiment.

(3) FIG. 3 illustrates a hardware configuration of the vibration applying apparatus according to the embodiment.

DESCRIPTION OF EMBODIMENT(S)

(4) Hereinafter, a vibration applying apparatus according to one embodiment will be described in detail with reference to the accompanying drawings.

Embodiment

(5) FIG. 1 illustrates a system according to one embodiment.

(6) In the system 100 of the embodiment, a plurality of vibration applying apparatuses 1 are connected to a data center 200 over a network 50. Each vibration applying apparatus 1 is given a unique identifier (ID) to allow the data center 200 to identify the vibration applying apparatuses 1.

(7) FIG. 2 is a view for explaining a vibration applying apparatus according to the embodiment.

(8) The vibration applying apparatus 1 of the embodiment has a base 11.

(9) A pedestal 12 made of wood is mounted on the upper surface of the base 11. A bone conduction speaker (bone conduction device) 13 is fixed to the pedestal 12. Referring to FIG. 1, the pedestal 12 is T-shaped, but its shape is not limited to the T-shape.

(10) The bone conduction speaker 13 is able to play music that produces specific natural vibrations. The type of such music is not particularly limited, and examples of the music include musical compositions for orchestras with many stringed instruments, musical compositions for solo stringed instrument to be played by a virtuoso, and Solfeggio frequency (528 Hz or the like).

(11) In addition, a supporting unit 121 for supporting the neck of a stringed instrument (vibration target object) 20 is mounted on the pedestal 12 in a vertical direction to the pedestal 12. A supporting unit 111 for supporting the back plate of the stringed instrument 20 is mounted on the base 11. FIG. 2 illustrates a violin as a stringed instrument. Note that the type of a stringed instrument is not particularly limited and other examples of such a stringed instrument include violas and cellos. In addition, in FIG. 2, the locations of the supporting unit 111 and the supporting unit 121 are fixed, but these units may be mounted so as to be movable in a long-side direction of the base 11, for example. By doing so, it becomes possible to stably support a stringed instrument according to its size and type.

(12) In addition, the vibration applying apparatus 1 has a cover 14 that is placed on the base 11 for covering the bone conduction speaker 13 and stringed instrument 20. A groove may be formed where the base 11 and the cover 14 contact each other.

(13) In the embodiment, the cover 14 is wholly made of glass. However, the shape of the cover 14 is not limited to the one illustrated.

(14) Further, the materials of the base 11, pedestal 12, and cover 14 are not limited to those described earlier, and for example, resin or metal may be used.

(15) Still further, a unit may partly be made of a different material. That is, for example, part of the cover 14 may be made of glass and the other part thereof may be made of wood or metal.

(16) The pedestal 12, bone conduction speaker 13, and cover 14 form a main part of a resonance box that resonates the stringed instrument 20.

(17) The base 11 has a display unit 112 and a control unit not illustrated.

(18) The display unit 112 displays information (for example, the temperature and moisture inside the resonance box) about the vibration applying apparatus 1 in accordance with instructions from the control unit. In addition, the display unit 112 has a touch panel. A user is able to use the touch panel to send instructions to the control unit.

(19) The control unit is able to control the type, volume, time, and others of music to be played through the bone conduction speaker 13 in accordance with user's instructions, for example.

(20) In addition, although not illustrated, the vibration applying apparatus 1 may be provided with a mechanism to keep the temperature and moisture constant.

(21) The following describes the hardware configuration of the vibration applying apparatuses 1 of the embodiment.

(22) FIG. 3 illustrates a hardware configuration of the vibration applying apparatus according to the embodiment.

(23) The vibration applying apparatus 1 is entirely controlled by a CPU (central processing unit) 101. A RAM (random access memory) 102 and a plurality of peripheral devices are connected to the CPU 101 via a bus 108.

(24) The RAM 102 is used as a main storage device of the vibration applying apparatus 1. The RAM 102 temporarily stores therein at least part of application programs that are executed by the CPU 101. In addition, the RAM 102 stores therein various kinds of data to be used by the CPU 101 in processing.

(25) Connected to the bus 108 are a built-in memory 103, a graphics processing device 104, an input device interface 105, a sensor 106, and a communication interface 107.

(26) The built-in memory 103 magnetically writes and reads data. The built-in memory 103 is used as an auxiliary storage device of the vibration applying apparatus 1. The application programs and various kinds of data are stored in the built-in memory 103. A semiconductor storage device, such as a flash memory, may be used as the auxiliary storage device.

(27) The graphics processing device 104 is connected to a display 104a. The display 104a corresponds to the display unit 112. The graphics processing device 104 displays images on a screen of the display 104a in accordance with instructions from the CPU 101. Examples of the display 104a include a liquid crystal display. In addition, the display 104a has a touch panel function.

(28) The input device interface 105 gives signals received from the touch panel to the CPU 101.

(29) The sensor 106 includes a sensor for detecting the eigenfrequency of the bone conduction speaker 13 and for detecting the resonance frequency of the stringed instrument 20. In addition, the sensor 106 includes a sensor for detecting the temperature and moisture inside the resonance box.

(30) The communication interface 107 is connected to the network 50. The communication interface 107 communicates data with the data center or another communication device over the network 50.

(31) With the above hardware configuration, the processing functions of the present embodiment may be implemented.

(32) The following describes an example of how the vibration applying apparatus 1 operates.

(33) First, the user takes the cover 14 off the base 11 and places the stringed instrument 20 on the supporting unit 111 and supporting unit 121. Then, the user places the cover 14 on the base 11 to complete a resonance box, which is kept airtight inside. In addition, the user operates the touch panel of the display unit 112 to specify the type of the stringed instrument placed in the resonance box. The user also specifies the type of music to be played through the bone conduction speaker 13.

(34) The control unit causes the bone conduction speaker 13 to play music that produces natural vibrations, and to transmit the natural vibrations with which the stringed instrument 20 resonates, via the pedestal 12 and supporting unit 121. By doing so, it is possible to create a state as if the stringed instrument 20 is actually played.

(35) Each vibration applying apparatus 1 sends data including the waveform of natural vibrations detected by the sensor 106 to the data center 200 over the network 50. In this connection, the following two waveforms are considered as data to be sent from the vibration applying apparatus 1 to the data center 200.

(36) Pattern 1: A combination of the waveform of natural vibrations of the bone conduction speaker 13, the type of the stringed instrument 20 placed in the resonance box, and a unique ID.

(37) Pattern 2: A combination of the waveform of natural vibrations produced from the resonance of the stringed instrument 20 placed in the resonance box, and the unique ID.

(38) The data center 200 checks these waveforms received from the vibration applying apparatus 1 to determine whether appropriate vibrations are applied to the stringed instrument.

(39) More specifically, the data center 200 compares the waveform of natural vibrations against a prescribed standard, and determines, if the standard is satisfied, that the vibrations applied are appropriate. For example, if the eigenfrequency produced by the sound post of the stringed instrument 20 is close to 528 Hz, the data center 200 determines that the vibrations applied are appropriate.

(40) If the standard is not satisfied, the data center 200 determines that the vibrations applied to the stringed instrument 20 by the bone conduction speaker 13 are not appropriate, and then sends an instruction for improving the vibrations to the vibration applying apparatus 1 over the network 50. At this time, the data center 200 may send a signal for displaying a warning screen on the display unit 112. Alternatively, the data center 200 may send a signal for instructing a change of the vibration frequency to the control unit. The control unit that has received the instruction for improving the vibrations from the data center 200 may change the frequency of the natural vibrations to be applied to the stringed instrument 200 by the bone conduction speaker 13, and then the vibration applying application 1 sends data including the waveform of the natural vibrations detected by the sensor 106 to the data center 200 over the network 50 again. This operation is repeated until the data center 200 determines that the vibrations applied are appropriate. By doing so, it is possible to apply appropriate vibrations to the stringed instrument 20.

(41) In addition, the data center 200 is able to manage the time to apply vibrations to the stringed instrument, determine whether the stringed instrument is able to provide a sufficient performance, and send the determination result to the vibration applying apparatus 1. For example, in the case where the time to apply vibrations to the stringed instrument is longer than a prescribed period of time, the data center 200 determines that the stringed instrument is in a state of providing a sufficient performance, and sends this determination result to the vibration applying apparatus 1.

(42) As described above, the vibration applying apparatus 1 has the bone conduction speaker 13, the pedestal 12 to which the bone conduction speaker 13 is fixed, and the supporting units 112 and 121 on which the stringed instrument 20 is placed, and is designed to transmit natural vibrations emanating from the bone conduction speaker 13 to the supporting unit 121 via the pedestal 12.

(43) If a stringed instrument is managed and stored under controlled temperature and moisture but is not played over a long time, the stringed instrument is not possibly able to exhibit its performance sufficiently.

(44) It is expected that, by keeping on applying vibrations from the vibration applying apparatus 1 via the bone conduction speaker 13 to a stringed instrument, the stringed instrument becomes in a state of operating stably because of the so-called aging effect. That is, it can be expected that, by stably applying, for a prescribed period of time, vibrations from the vibration applying apparatus 1 to a stringed instrument that has not been played over a long time, the stringed instrument becomes able to exhibit its performance as if the stringed instrument has periodically been played by an instrumentalist.

(45) In addition, it is possible to greatly reduce the risk of losing the characteristic sounds of a stringed instrument by measuring the effects of natural vibrations to be applied to the stringed instrument using the artificial intelligence-based management system.

(46) In this connection, in the embodiment, the vibration applying apparatus 1 is formed in a box shape. However, the shape of the vibration applying apparatus is not limited thereto and, for example, the vibration applying apparatus may be formed in a shape like a case with handles for carriage.

(47) In addition, the embodiment has described the example of using the vibration applying apparatus 1 for enabling the stringed instrument 20 to exhibit its performance. However, the vibration applying apparatus 1 is not limited thereto and, for example, may be used to adjust the location of a sound post or detect troubles in the stringed instrument 20, using vibrations that emanate from the bone conduction speaker 13.

(48) Further, the embodiment has exemplified a stringed instrument as a vibration target object. However, the vibration target object is not limited thereto and may be cut materials for a stringed instrument. Examples of such materials for a stringed instrument include spruce and maple. These materials are placed in the resonance box and are supplied with natural vibrations through the bone conduction speaker 13 over a long period of time. Then, a stringed instrument is made using these materials. By doing so, it is expected that an effect like prenatal education for unborn baby may be given to the stringed instrument.

(49) In this connection, the vibration applying apparatus 1 may be designed to have some of the functions of the data center 200, or the data center 200 may be designed to have some of the functions of the vibration applying apparatus 1.

(50) Heretofore, the vibration applying apparatus of the present embodiment has been described as the embodiment illustrated. The embodiment is not limited thereto, and the components of each unit may be replaced with other components having equivalent functions. In addition, other desired configurations and steps may be added to the embodiment.

(51) Further, two or more desired configurations (features) described in the above-described embodiment may be combined.

(52) The above-described processing functions may be implemented by using a computer. In this case, a program is prepared, which describes processes for the functions of the vibration applying apparatus 1. A computer implements the above-described processing functions by executing the program. The program describing the intended processes may be recorded on a computer-readable recording medium. Computer-readable recording media include magnetic storage devices, optical discs, magneto-optical recording media, semiconductor memories, etc. The magnetic storage devices include HDDs, flexible disks (FD), magnetic tapes, etc. The optical discs include DVDs, DVD-RAMs, CD-ROMs, CD-RWs, etc. The magneto-optical recording media include MOs (magneto-optical disks), etc.

(53) To distribute the program, portable recording media, such as DVDs and CD-ROMs, on which the program is recorded, may be put on sale. Alternatively, the program may be stored in the storage device of a server computer and may be transferred from the server computer to other computers over a network.

(54) A computer which is to execute the above program stores in its local storage device the program recorded on a portable recording medium or transferred from the server computer, for example. Then, the computer reads the program from the local storage device, and runs the program. The computer may run the program directly from the portable recording medium. Also, while receiving the program being transferred from the server computer, the computer may sequentially run this program.

(55) In addition, the above-described processing functions may also be implemented wholly or partly by using DSP (digital signal processor), ASIC (application-specific integrated circuit), PLD (programmable logic device), or other electronic circuits.

(56) According to one aspect, it is possible to minimize the performance degradation of a vibration target object.

(57) All examples and conditional language provided herein are intended for the pedagogical purposes of aiding the reader in understanding the invention and the concepts contributed by the inventor to further the art, and are not to be construed as limitations to such specifically recited examples and conditions, nor does the organization of such examples in the specification relate to a showing of the superiority and inferiority of the invention. Although one or more embodiments of the present invention have been described in detail, it should be understood that various changes, substitutions, and alterations could be made hereto without departing from the spirit and scope of the invention.