Stand for musical instrument less obstructive to player

Abstract: A high hat stand keeps high hat cymbals (12a/ 12b) over a floor, a foot pedal (11c) is connected to a rod (11b) slidable inserted in a guide (11a) for clashing the high hat cymbals, and a biped supporter (13) is connected to the guide so as to keep the guide (11a) upright to the floor in cooperation with the foot pedal (11c), wherein the two legs (13a/ 13b) and the foot pedal (11c) are arranged in such a manner as to form a virtual triangle on the floor, and an additional leg (BS) is detachable from the guide (11a) so as to change the biped supporter (13) to a tripod.

Description: FIELD OF THE INVENTION This invention relates to a stand for a musical instrument and, more particularly, to a stand for a musical instrument such as, for example, high hat cymbals. DESCRIPTION OF THE RELATED ART High hat cymbals are mounted in face-to-face relation on a stand, which is called "high hat stand", and a player steps on a pedal so as to clash the high hat cymbals. Thus, the high hat stand not only supports the high hat cymbals but also moves one high hat cymbals to the other. A typical example of the high hat stand is illustrated in figure 1 of the drawings. The prior art high hat stand is broken down into a mechanical actuator 1 and a tripod 2. The mechanical actuator 1 keeps one 3a of the high hat cymbals 3a/3b stationary and the other 3b movable. While no force is exerted on the mechanical actuator 1, the high hat cymbal 3b is spaced from the other high hat cymbal 3a. When force is exerted, the high hat cymbal 3b is clashed with the other high hat cymbal 3a, and, thereafter, returns to the initial position. On the other hand, the tripod 2 keeps the mechanical actuator 1 upright with respect to a floor. A player sits on a chair in front of the prior art high hat stand, and exerts the force on the mechanical actuator 1. The tripod 2 is foldable, and the player folds the tripod 2 for custody. The mechanical actuator 1 largely comprises a guide 1a, a rod 1b, a foot pedal 1c and a spring unit 1d. Tube members 1e/ 1f and a clamper 1g form the guide 1a. The tube members 1e/ 1f are different in diameter, and the tube member 1e is slidable into the other tube member 1f. The clamper 1g is attached to the upper end of the tube member 1f, and clamps and releases the other tube member 1e. Thus, the guide 1a is expandable and contractible. The rod 1b is inserted into the tube members 1e/ 1f, and the upper end portion of the rod 1b projects from the upper end of the tube member 1e. The stationary high hat cymbal 3a is fixed to the upper end of the tube member 1e by means of a coupling 1h, and the other high hat cymbal 3b is connected to the upper end portion of the rod 1b by means of a coupling 1j. The high hat cymbal 3b is moved together with the rod 1b, and is clashed with the stationary high hat cymbal 3a. The foot pedal 1c includes a pedal frame 1k, a pedal plate 1m and a transmission member 1n. The pedal frame 1k has an L-letter configuration, and is placed on the floor. The vertical portion of the pedal frame 1k is connected to the tube member 1f, and keeps the guide 1a and the high hat cymbals 3a/ 3b upright in cooperation with the tripod 2. The pedal frame 1k has a heel 1p, and the heel 1p slopes. The pedal plate 1m is connected at one end thereof to the heel 1p, and the heel 1p provides a axis of rotation for the pedal plate 1m. The transmission member 1n is implemented by a belt, and is connected between the other end of the pedal member 1m and the lower end of the rod 1b. The belt is flexible, and, for this reason, the transmission member 1n converts the turning motion of the pedal plate 1m to the straight motion of the rod member 1b. The spring unit 1d is attached to the tube member 1f, and has a return spring (not shown) connected to the lower end of the rod 1b. The return spring upwardly urges the rod 1b at all times, and causes the rod 1b to space the high hat cymbal 3b from the stationary high hat cymbal 3a. The return spring causes the pedal plate 1m to turn in the clockwise direction, and the pedal plate 1m is continued to the slope of the heel 1p. Thus, the pedal plate 1m is turnable in the counter clockwise direction. When the player steps on the pedal plate 1m, the pedal plate 1m turns in the counter clockwise direction, and pulls down the transmission member 1n. The transmission member 1n in turn pulls down the rod 1b, and the high hat cymbal 3b is clashed with the stationary high hat cymbal 3a. When the player releases the pedal plate 1m, the return spring urges the rod 1b upwardly, and the high hat cymbal 3b is spaced from the stationary high hat cymbal 3a. The tripod 2 comprises three legs 2a/ 2b/ 2c, a first center ring 2d, a second center ring 2e and three stays 2f/ 2g/ 2h. The center ring 2d is welded to the tube member 1f at an intermediate position spaced from the floor, and the other center ring 2e is also welded to the tube member at a lower position between the intermediate position and the floor. The legs 2a/ 2b/ 2c are connected at the upper ends to the first center ring 2d by means of pins 2j, and are turnable with respect to the first center ring 2d. The stays 2f/ 2g/ 2h are connected at the inner ends to the second center ring 2e by means of pins (not shown) and at the outer ends to the legs 2a/ 2b/ 2c by means of pins 2k. For this reason, the stays 2f/ 2g/ 2h are turnable with respect to the second center ring 2e as well as the associated legs 2a/ 2b/ 2c. The stay 2f/ 2g/ 2h sets a limit on the angular motion of the associated leg 2a/ 2b/ 2c. When the player expands the legs 2a/ 2b/ 2c to the maximum angles, the legs 2a/ 2b/ 2c keep the mechanical actuator 1 upright on the floor, and the prior art high hat stand holds the high hat cymbals at an appropriate position for the player. In this situation, the legs 2a/ 2b/ 2c are angularly spaced from one another as shown in figure 2, and angle  is 120 degrees. The foot pedal 1c occupies part of the sectrial area between the legs 2b and 2c. On the other hand, when the player folds the legs 2a/ 2b/ 2c, the tripod 2 minimizes the volume for custody. The prior art high hat stand is encountered a problem in the playability of the high hat cymbals 3a/3b. This is because of the fact that the legs 2b/ 2c stand close to the foot pedal 1c. Even if the player places the foot pedal 1c in another sectrial area, two legs 2a/ 2c or 2a/ 2b stand close to the foot pedal 1c, and the player feels the legs 2a/ 2b, 2b/ 2c or 2a/ 2c an obstacle to the performance. Especially, when the high hat cymbals 3a/ 3b are played together with various drums, a lot of pedals are arranged around the player, and the player is liable to hit his foot on the leg. Another prior art musical stand is disclosed in U.S. Patent No. 5,105,706. The prior art musical stand is a dual leg structure. The foot pedal is provided under the telescoping sections corresponding to the guide 1a of the prior art high hat stand, and projects toward a player. Two supporting legs are fixed to the telescoping sections, and rearwardly projects onto the floor. The two supporting legs and the foot pedal keep the telescoping sections upright on the floor. While the player moves high foot between the pedal and the floor, any obstacle does not interfere with the foot motion, and the prior art musical stand disclosed in the U.S. Patent is free from the problem inherent in the prior art high hat stand shown in figure 1. However, some players feel the dual leg supporting structure unstable, and they can not concentrate themselves on the performance. Thus, there is a trade-off between the playability and the sense of unease, and the drummers can not comfortably play the percussion musical instrument. SUMMARY OF THE INVENTION It is therefore an important object of the present invention to provide a stand for a musical instrument which allows a player comfortably play the musical instrument without sacrifice of the playability. To accomplish the object, the present invention proposes to make a player easily add an additional leg to a biped supporter. In accordance with one aspect of the present invention, there is provided a stand for a percussion instrument as set out in claim 1. The stand comprises a mechanical actuator including a rigid member upright to a stationary plane for holding the percussion instrument thereover and a foot pedal connected to the rigid member and linked with the percussion instrument for generating sound and a supporter including two legs connected to the rigid member, arranged in such a manner as to form a virtual triangle on the stationary plane together with the foot pedal and an additional leg detachable from the rigid member so as to make the supporter have a biped structure. BRIEF DESCRIPTION OF THE DRAWINGS The features and advantages of the stand for a musical instrument will be more clearly understood from the following description taken in conjunction with the accompanying drawings in which: Fig. 1 is a perspective view showing the prior art high hat stand; Fig. 2 is a plane view showing the angular positions of the legs and the foot pedal; Fig. 3 is a perspective view showing a high hat stand according to the present invention; Fig. 4 is a front view showing a biped supporter incorporated in the high hat stand; Fig. 5 is a cross sectional view taken along line A-A of figure 4 and showing a connection between a center ring and two legs; and Fig. 6 is a plane view showing relative relation between the legs and a foot pedal. DESCRIPTION OF THE PREFERRED EMBODIMENT Referring to figure 3 of the drawings, a high hat stand 10 embodying the present invention largely comprises a mechanical actuator 11 for high hat cymbals 12a/ 12b and a biped supporter 13. The mechanical actuator 11 also keeps one 12a of the high hat cymbals 12a/12b stationary and the other 12b movable, and a player makes the mechanical actuator clash the movable high hat cymbal 12b with the stationary high hat cymbal 12a. The mechanical actuator 11 includes a guide 11a, a rod 11b, a foot pedal 11c and a spring unit 11d. The guide 11a, the rod 11b and the spring unit 11d are similar to those of the mechanical actuator 1, and component parts are labeled with the same references designating corresponding parts of the guide/ the rod/ spring unit 1a/ 1b/ 1d without detailed description for the sake of simplicity. For this reason, description is hereinbelow focused on the foot pedal 11c and the biped supporter 13. The foot pedal 11c includes an L-letter shaped pedal frame 11e put on the floor, a pedal plate 11f turnable with respect to a heel of the pedal frame 11e and a transmission belt 11h connected between the pedal plate 11f and the rod 11b. Although the foot pedal 11c is similar in structure to the foot pedal 1c, the manufacturer locates the foot pedal 11c at a particular position in relation to the biped supporter 13. The particular position will be described hereinlater in connection with the biped supporter 13. The foot pedal 11c not only makes the rod 11b clash the movable high hat cymbal 12b with the stationary high hat cymbal 12a but also keeps the guide 11a upright on the floor together with the biped supporter 13. When the player steps on the pedal plate 11f, the transmission belt 11h pulls down the rod 11b against the elastic force of the return spring, and the movable high hat cymbal 12b is clashed with the stationary high hat cymbal 12a. The high hat cymbals 12a/ 12b generate sound. The player may strike the high hat cymbal 12b with a stick. When the player releases the pedal plate 11f, the return spring urges the rod 11b to move upwardly, and the movable high hat cymbal 12b is spaced from the stationary high hat cymbal 12a. The biped supporter 13 includes two legs 13a/ 13b, two center rings 13c/13d and two stays 13e/ 13f (see figure 5). Although the biped supporter 13 can not keep the guide 11a upright, the foot pedal cooperates with the biped supporter 13 so as to make the guide 11a keep the high hat cymbals 12a/ 12b at appropriate position over the floor. The component parts of the high hat stand according to the present invention are less than those of the prior art high hat stand, and the production cost is reduced. The structure of the biped supporter 13 is well understood from figures 4 and 5. The center rings 13c/ 13d are similar to one another, and are attached to the tube member 1f. The center ring 13c is spaced from the other center ring 13d. The center rings 13c/ 13d have a pair of semi-cylindrical members 13g/ 13h. End portions of the semi-cylindrical members 13g/ 13h are curled, and the curled end portions are assembled with a pin 13j. The semi-cylindrical members 13g/ 13h are turnable around the pin 13j. For this reason, the center ring 13c/ 13d is opened and closed as indicated by arrows AR1. AR2. When the center ring 13c/ 13d is opened, the tube member 1f is inserted into the inner space of the center ring 13c/ 13d. The center ring 13c/13d is closed, and a bolt 13 k is screwed into a nut 13m through holes formed in the other end portions 13n/ 13p of the semi-cylindrical members 13g/ 13h. Thus, the split center rings 13c/ 13d are easily attached to the tube member 1f at arbitrary positions without sliding along the tube member 1f. Moreover, the tripod 2 is easily replaced with the biped supporter 13, and user can remodel the prior art high hat stand to the high hat stand according to the present invention. The center ring 13c/ 13d further has two pairs of projections 13q/ 13r. In this instance, the two pairs of projections 13q/ 13r are spaced from the other end portions 13n/13p by 120 degrees, and are further spaced from one another by 120 degrees. Thus, the other end portions 13n/ 13p and the two pairs of projections 13q and 13r are spaced along the circumference of the center ring 13c/ 13d at intervals of 120 degrees. The projections of each pair 13q/ 13r are spaced from each other so as to form a gap, and an upper end portion of the leg 13e/ 13f or an inner end portion of the stay 13e/ 13f is inserted into the gap. Though not shown in the drawings, through holes are formed in the projections 13q/ 13r, the upper portions of the legs 13a/ 13b and the inner end portions of the stays 13e/ 13f, respectively, and the upper end portions and the inner end portions are turnably connected to the pairs of projections 13q/13r by means of bolts 13s and nuts 13t. Rubber pieces 13u are attached to the lower ends of the legs 13a/ 13b, and prevent the legs 13a/ 13b from slippage on the floor. Through-holes are formed in the intermediate portions of the legs 13a/ 13b, and the outer end portions of the stays 13e/ 13f are also formed with through-holes. The through-holes of the intermediate portions are aligned with the through-holes of the outer end portions, and the stays 13e/ 13f are turnably connected to the legs 13a/ 13b by means of bolts 13v and nuts 13w. Thus, the center rings 13c/ 13d are fixed to the tube member 1f, and the center rings 13c/ 13d, the legs 13a/ 13b and the stays 13e/ 13f are turnably assembled with one another. When the player spreads the legs 13a/ 13b, the legs 13a/ 13b turn, and are spaced from the tube member 1f. In this situation, the rubber pieces 13u and the pedal frame 11e are located on the floor as shown in figure 6. Angles 1, 2 and 3 between the rubber pieces 13u and the other end portions 13n/13p are 120 degrees, and the center line CL1 of the pedal frame 11e is aligned with the boundary surface between the other end portions 13n and 13p. Thus, the rubber pieces 13u are located at two vertexes P1/ P2 of a virtual triangle TRI, and the other vertex P3 is on the center line CL1. While a player is playing a tune, he sits on a chair placed on the opposite side to the line between the vertexes P1 and P2 with respect to the center line CL2 of the rod 11b. Even through the player moves his foot between the pedal plate 11f and another pedal, he does not hit the foot with the legs 13a/13b. Thus, the high hat stand according to the present invention never provides an obstacle against the motion of the player. The stationary high hat cymbal 12a and the movable high hat cymbal 12b are implemented by circular metal plates, and are attached to the upper end of the guide 11a and the upper end of the rod 11b, respectively. The center of gravity G1 of the assemblage is on the center line CL2 of the rod 11b. The foot pedal 11c has the center of gravity G2 on the center line CL1. Both centers of gravity G1/ G2 are on the same side of the line P1-P2 between the vertexes P1 and P2, and fall within the virtual triangle TR1. Although the moment around the line P1-P2 due to the center of gravity G1 and the moment around the line P1-P2 due to the center of gravity G2 are exerted on the high hat stand, the moments are received by the pedal frame 11e, and the pedal frame 11e has sufficient mechanical strength to receive the moments. For this reason, the high hat stand according to the present invention is stable on the floor, and hardly falls down. Even if the center of gravity G1 is moved beyond the line P1-P2, the foot pedal 11c keeps the high hat cymbals 12a/ 12b stable in so far as the moment due to the center of gravity G2 is much larger than the moment due to the center of gravity G1. If a player feels the biped supporter 13 unstable, the player loosens the bolts 13k and the nuts 13m, and inserts an additional leg BS between the other end portions 13n and 13p of the center ring 13c and an additional stay between the other end portions 13n and 13p of the other center ring 13d. The player screws the bolts 13k into the nuts 13m, and turns the foot pedal 11c at 180 degrees. Then, the biped supporter 13 is changed to a tripod shown in figure 2. As will be appreciated from the foregoing description, the two legs 13a/13b and the foot pedal 11c keep the percussion instrument stable over the floor. The legs 13a/13b of the stand according to the present invention is less than those of the prior art stand for a percussion instrument, and the production cost is reduced rather than that of the prior art stand The two legs 13a/ 13b are located on the opposite side to the foot pedal with respect to the center line CL2 of the rod 11b. Although the player moves his foot between the foot pedal 11c and another position, the player never hit his foot on the legs 13a/ 13b, and the stand for a percussion instrument according to the present invention offers comfortable environment to the player. Moreover, when the center of gravity G1 falls within the virtual triangle, the stand for a percussion instrument keeps the percussion instrument stable over the floor. Finally, the split center rings 13c/ 13d allows user to easily assemble the biped supporter 13 to the tube member 1f, and the user can remodel the biped supporter 13 to a tripod. In other words, a player can select a supporter between the biped structure and the tripod, and does not feel the stand unease. Although a particular embodiment of the present invention has been shown and described, it will be apparent to those skilled in the art that various changes and modifications may be made without departing from the scope of the present invention as defined by the appended claims. For example, the stand according to the present invention is available for any kind of percussion instrument in so far as the percussion instrument requires a pedal manipulated by a player during a performance.

Claims: A stand for a percussion instrument (12a/ 12b) comprising a mechanical actuator including a rigid member (11a/ 11b) upright to a stationary plane for holding said percussion instrument thereover and a foot pedal (11c) connected to said rigid member (11a/ 11b) and linked with said percussion instrument (12b) for generating sound, and a supporter (13) connected to said. rigid member (11a/ 11b) so as to keep said rigid member upright to said stationary plane, wherein said supporter includes three legs (13a/ 13b/BS) connected to said rigid member and one (BS) of which is detachable, whereby the two remaining legs are arranged in such a manner as to form a virtual triangle (TR1) on said stationary plane together with said foot pedal (11c). The stand for a percussion instrument as set forth in claim 1, in which said two legs (13a/ 13b) are held in contact with said stationary plane at respective contact points (P1/ P2) located on the opposite side to said foot pedal (11c) with respect to said rigid member (11a/ 11b). The stand for a percussion instrument as set forth in claim 2, in which said contact points are respectively located at two vertexes (P1/ P2) of said virtual triangle (TR1), and the remaining vertex (P3) of said virtual triangle is on a first center line (CL1) of said foot pedal extending in a longitudinal direction thereof. The stand for a percussion instrument as set forth in claim 3, in which said percussion instrument and said rigid member have a center of gravity (G1) located on the same side as the foot pedal (11c) with respect to a line between said two vertexes (P1/ P2). The stand for a percussion instrument as set forth in claim 3, in which said rigid member (11a/11b) has a second center line (CL2) aligned with a center of said virtual triangle (TR1), and lines drawn from said center to the three vertexes (P1/ P2/ P3) are spaced from one another by 120 degrees. The stand for a percussion instrument as set forth in claim 1, in which said supporter (13) is foldable. The stand for a percussion instrument as set forth in claim 6, in which said supporter further includes split center rings (13c/ 13d) changed between split state and closed state, allowing said rigid member (11a) to pass through gaps created in said closed state and clamping said rigid member (11a) in said closed position at certain positions spaced from each other; and two stays (13e/ 13f) turnably connected at inner ends thereof to one (13d) of said split center rings closer to said stationary plane than the other split center ring (13c) and at outer ends thereof to intermediate positions of said two legs (13a/13b), and said two legs are turnably connected at upper ends thereof to said other split center ring (13c). The stand for a percussion instrument as set forth in claim 1, in which said rigid member includes a guide (11a) having an inner space extending along a longitudinal direction thereof, a rod (11b) slidably inserted into said inner space and having an upper end portion projecting from an upper end of said stationary guide and an lower end connected to said foot pedal (13c), and said percussion instrument is connected to said guide and said rod so that said percussion instrument generates said sound due to a relative motion between said guide and said rod. The stand for a percussion instrument as set forth in claim 7, in which said one of the three legs (BS) has one end portion turnably clamped by one of said center rings, and said supporter further has an additional stay turnably connected between said additional leg and the other of said center rings. The stand for a percussion instrument as set forth in claim 8, in which said guide (11a) is split into a plurality of guide members (1e/ 1f) projectable from and retractable into one (1f) of said plurality of guide members. The stand for a percussion instrument as set forth in claim 10, in which said rigid member (11a) further includes a first coupling member (1j) for connecting a first cymbal (12b) to said rod (11b) and a second coupling member (1h) for connecting a second cymbal (12a) to another (1e) of said plurality of guide members. The stand for a percussion instrument as set forth in claim 11, further comprising a return spring (11d) connected to said rod so as to urge said first cymbal to be spaced from said second cymbal.

Inventors: KUROSAKI MAKOTO, KUROSAKI, MAKOTO, Kurosaki, Makoto, Yamaha Corporation
Applicants: YAMAHA CORP, YAMAHA CORPORATION
Application year: 1998
Main classification: G10D13
IPC codes: G10D13, G10G5