The present invention relates to devices for supporting microphones structured to receive sound from a harmonica.
Musicians frequently desire to play a harmonica simultaneously with another instrument (for example, a guitar). In such cases, a mechanism must be provided for holding or securing the harmonica in a desired position with respect to the musician's mouth. In addition, it is frequently necessary to position and secure a microphone adapted for receiving sounds from a harmonica at a predetermined distance from the harmonica or in contact with the harmonica. This positioning may be difficult to maintain while the harmonica is being played. Thus, a need exists for a mechanism and method for securing a harmonica and a suitable microphone in a desired position with respect to each other while the harmonica is being played.
In one aspect of the embodiments described herein, a device is provided for supporting a harmonica and a microphone. The support device includes a base, a microphone retainer secured to the base, and a harmonica securement mechanism secured to the base adjacent the microphone retainer.
In another aspect of the embodiments of the described herein, a device is provided for maintaining a desired spatial relationship between a harmonica and a microphone. The device includes a base, a microphone retainer secured to the base, and a harmonica securement mechanism secured to the base adjacent the microphone retainer.
The accompanying drawings, which are incorporated in and constitute a part of this specification, illustrate embodiments of the invention and together with the description serve to explain principles of the invention.
Base 12 serves as a mounting structure onto which the securement mechanism 16 and the microphone retainer 14 may precisely located and mounted with respect to each other. This, in turn, enables precise positioning and securement of a microphone (mounted in the retainer) and a harmonica (mounted in the securement mechanism) with respect to each other.
In the embodiment shown, base 12 includes holes 12a structured to receive therethrough adjustable or removable fasteners 18 used to secure a cross-member 17 of the securement mechanism 16 to the base 12, in a manner described below. In a particular embodiment, metallic fasteners are used to secure the microphone cross-member 17 to the base 12. However, any suitable method may be used to secure the cross-member 17 to base 12, depending on the materials from which the retainer and cross-member are formed and other pertinent factors. Possible attachment methods include adhesives, ultrasonic welding, and any other suitable method.
Base 12 also includes one or more holes 22 structured to receive therethrough adjustable or removable fasteners 24 used to secure the microphone retainer 14 to the base, in a manner described below. In a particular embodiment, metallic fasteners 24 are used to secure the microphone retainer 14 to the base 12.
In one embodiment, the base is in the form of a flat plate formed from a suitable material (for example, aluminum). However, the base can have any shape or configuration suitable for the purposes described herein, and suitable for mounting on a given microphone stand or boom.
In a particular embodiment, holes 22 are in the form of longitudinal slots having longitudinal axes (not shown) extending parallel to an axis Y oriented perpendicular to a longitudinal extent or length dimension L of the harmonica 99 (as shown in
Any suitable method may be used to secure the retainer to base 12, depending on the materials from which the retainer and base are formed and other pertinent factors. Possible attachment methods include adhesives, ultrasonic welding, and any other suitable method.
Base 12 may be formed from aluminum, steel, plastic or any other suitable material. In a particular embodiment, the base is formed from an electrically insulative material, such as a suitable polymer. This aids in interrupting potential electrical ground paths for static charges from the device components to ground.
In the embodiment shown, securement mechanism 16 includes cross-member 17 and brace 20 secured to the cross-member. Cross-member 17 may be formed from a metallic material or any other suitable material. Cross-member 17 may be secured to base 12 using any suitable means (for example, by using metallic fasteners 55)
In one embodiment, securement mechanism brace 20 is generally “U”-shaped, having a first portion 20b with a first end 20c and a second end 20d, and one of arms 20a extending in a first direction from each of the first end 20c and the second end 20d. Arms 20a are spaced apart a distance sufficient to enable harmonicas of various lengths to be inserted therebetween, as shown in
In one embodiment, the end of each of arms 20a has an exteriorly threaded portion structured to permit attachment of a suitable threaded fastener 30 thereto, for securing the arm to cross-member 17 through an associated one of base openings 17a. In another embodiment (shown in
In another embodiment, the holes 17a in cross-member 17 are structured to receive therethrough portions of arms 20a of brace 20. The arms 20a may form an interference fit with edges of the holes to secure the brace 20 to the cross-member. Alternatively, the arms 20a may be soldered, staked, or otherwise suitably secured to the cross-member so as to securely attach the brace 20 to the cross-member and maintain the brace firmly in position on the cross-member so as to permit manipulation by a user without loosening or detaching the brace from the cross-member or the securement mechanism from the base.
A biasing member 20j has a pair of openings 20k spaced apart a distance corresponding to the spacing of the arms 20a and is slidingly mounted on the arms. A spring member 20m (in the embodiment shown, a coil spring member) is positioned along each of arms 20a so as to reside between the biasing member 20j and cross-member 17 when the brace 20 is secured to the cross-member. Spring members 20m are configured to be in compression when the biasing member 20j is spaced apart a maximum distance from cross-member 17, so as to consistently bias the biasing member in a direction away from the cross-member. In this embodiment, the biasing member 20j is forced toward the cross-member 17 (thereby compressing the springs 20m) to permit insertion and securement of the harmonica between the cross-member and biasing member.
Spring members 20m are structured so as to, when deflected, exert sufficient force on biasing member 20j to firmly retain the harmonica between the biasing member and the cross-member 17, while still enabling a user to manually press the biasing member in direction A (as shown in 4) to enable the harmonica to be inserted between the biasing member and the cross-member 17.
Referring to
Referring to
The structure of the securement mechanism also enables some adjustment of the mounting position of the harmonica within the mechanism. That is, the final position of the harmonica in the securement mechanism when mounted may be adjusted so as to vary the distance of the harmonica from the microphone.
In another particular embodiment, the retainer is formed from a relatively rigid material (for example, a polymer) and is structured so that the microphone can be secured in a particular location within the retainer. In addition, the retainer and/or the securement mechanism 16 are adjustably positionable and securable on the base 12 with respect to each other (for example, using fasteners or other suitable means) such that a harmonica secured within the securement mechanism will abut an edge of the retainer closest to the securement mechanism responsive to a force pressing the harmonica toward the retainer, and before being forced out of the securement mechanism. This permits the position of the microphone relative to the harmonica to be adjusted within the retainer, while at the same time preventing the harmonica from being pushed out of the securement mechanism by a user. For example, the retainer and/or the securement mechanism may be secured on the base such that the end of the microphone is flush with an edge of the retainer closest to the securement mechanism, while permitting a harmonica secured in the mechanism to abut the edge of the retainer. In this manner, the retainer edge serves as a hard stop against which the harmonica is pushed while making contact with the microphone end residing flush with the retainer edge. Thus, contact between the harmonica and the microphone is conveniently maintained.
Brace 20 and biasing member 20j may be formed from a metallic material, a polymeric material, or any other suitable type of material.
In the embodiment shown, retainer 14 is generally circular and defines a cavity 14a structured to receive the microphone 90 therein. Retainer 14 may be shaped and sized to receive and secure therein a harmonica microphone having a predetermined size or diameter. Alternatively, the retainer may be structured so that a size or diameter of the microphone-receiving cavity defined by the retainer is adjustable. For example, the retainer 14 may be in the form of a ring with a gap formed therein to permit expansion of the ring to accommodate microphones of various sizes. The ends of the ring may be secured to each other using a bolt or other suitable means after the microphone has been positioned within the ring and the ends of the ring forced toward each other to securely grip the microphone within the ring.
In one embodiment, the retainer is formed from a polymeric or other electrically insulating material molded or formed into the desired shape. However, the retainer may be formed from any suitable material.
In a particular embodiment, metallic fasteners 24 positioned in holes 12a are used to secure the microphone retainer 14 to the base 12. However, any suitable method may be used to secure the retainer to base 12, depending on the materials from which the retainer and base are formed. Possible attachment methods include adhesives, ultrasonic welding, and any other suitable method.
Using any of the retainer embodiments described above, the position of the microphone 90 can be adjusted with respect to a harmonica 99 secured in the securement mechanism 16, to enable the microphone to be positioned and secured in contact with the harmonica.
The retainer 14 may be structured to provide clearance for user access to a microphone volume control located on the microphone body.
In a particular embodiment, the microphone-receiving cavity 14a is cylindrical, and securement mechanism 16 and retainer 14 are positioned with respect to each other so as to align a central axis Z of the harmonica receiving space S with a central axis M of the microphone receiving cavity 14a, along a plane bisecting and lying perpendicular to a line extending along cross-member 17 and connecting central axes of arms 20a as shown in
In particular embodiments, the device 10 is structured such that a microphone 90 mounted in the retainer is electrically insulated from any metal used in fabricating the device. In one embodiment, a spacer (not shown) is configured to either encircle or wrap around a portion of a body of the microphone or otherwise be positioned between the microphone and the retainer, to space apart at least a portion of the microphone from the retainer when the microphone is mounted in the retainer. The spacer may be formed from an electrically insulating material which enables the spacer to be positioned along an exterior surface of the microphone, and also enables gripping, attaching, adhering, or otherwise securing the spacer in the desired position on the microphone. When the spacer is attached to the microphone, the spacer and microphone may be inserted into retainer cavity 14a and positioned such that the spacer is interposed between the microphone and the retainer.
In a particular embodiment, the spacer is configured so as to space the microphone apart from any metal used in construction of the device 10 when the microphone is secured in the retainer. This aids in interrupting any potential ground path for static charge from the microphone to ground.
In a particular embodiment, the spacer is positioned proximate a volume control knob (not shown) located along a lower surface of the microphone, to space apart the volume control knob from a surface of the retainer 14 against which the microphone rests, to provide further clearance between the volume control know and the retainer and permit easier access of the user to the knob.
The spacer may also be sized to occupy a portion of a space between the retainer and a microphone having an outer dimension which is too small to contact the retainer when position in cavity 14a. In this usage, the retainer takes up the “slack” between the retainer and the microphone, thereby enabling various different sizes of microphones to be secured in a retainer of having a single, fixed size of cavity 14a. To this end, the spacer may be formed from a resiliently deflectable insulating material (such as rubber or a foam material) structured to resiliently deflect to any of a relatively wide range of dimensions.
The spacer may also be structured so as to maximize static frictional forces between the spacer and the retainer and/or between the spacer and the microphone. This helps prevent movement of the microphone relative to the retainer, thereby aiding in maintaining the microphone in a desired position.
The spacer may be formed from any suitable electrically insulating material, such as a polymeric or rubber material. In a particular embodiment, the spacer is formed form a resiliently stretchable or deflectable material (such as rubber or neoprene) which is expandable to accommodate microphones of different sizes.
If desired, the spacer may be secured within and to retainer 14 after positioning therein, using any suitable method, such as adhesive application, etc.
As seen in the drawings, the base 12 of an embodiment of the support device may be securely affixed to a first angle adjusting boom (generally designated 70), which enables adjustable positioning and orientation of the base 12 with respect to a user. The first angle adjusting boom 70 adjusts the angle and position of the harmonica and harmonica microphone to accommodate the user's playing preference. The first angle adjusting boom pivots about a second height adjusting boom 72 that operates to adjust the height of the first angle adjusting boom 70 with respect to a horizontal ground surface (not shown).
The embodiments of the present invention described herein operate to simultaneously retain both a harmonica and a harmonica microphone in linear alignment while allowing a performer's hands free to play another instrument such as a guitar. As both the securement mechanism and the retainer are affixed to the base, the relative position of the securement mechanism with respect to the retainer does not vary.
When a harmonica is held in place in the securement mechanism, a user is free to play another instrument such as a guitar and to change instruments without having to worry about either manually holding the harmonica or wearing a cumbersome neck device to hold the harmonica.
As both the harmonica securement mechanism and the harmonica microphone retainer are each affixed to the first angle adjusting boom, the relative position of the harmonica securement mechanism with respect to the harmonica microphone retainer does not vary.
It will be understood that the foregoing descriptions of the various embodiments are for illustrative purposes only. As such, the various structural and operational features herein disclosed are susceptible to a number of modifications, none of which departs from the scope of the appended claims.
This application claims the benefit of U.S. Provisional Application Ser. No. 61/713,473, filed on Oct. 12, 2012, the disclosure of which is incorporated herein by reference in its entirety.
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Number | Date | Country | |
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61713473 | Oct 2012 | US |