The present invention relates broadly to an instrument case and, more particularly, to an instrument case with a built in stand.
Professional and amateur musicians of stringed instruments, such as guitars, violins, and banjos etc. are very protective of their instruments which are typically delicate and expensive devices. Damage to stringed instruments can also affect the sound quality of the instrument as well as decrease its monetary value. These musicians of stringed instruments usually have at least two problems: one is the effort required to set up a separate instrument stand, then remove the instrument and peripherals from the case, placing the instrument on the stand, and then finding where to put their instrument case off stage while they are performing; another is the effort required to reverse the process after they have finished playing. For the musician, these efforts are at best time consuming and inconvenient. Stringed instrument stands, such as guitar stands, have typically been awkward to use. A musician must carry his or her instrument and stand together and then find a place where to set up their instrument case and stand so that they will not be in the way when playing or performing. Also, typical stands for stringed instruments offer only limited protection from falls or accidents. Transportation and storage is another concern. A musician on the go must transport and carry both their instrument and its stand separately. To a musician, having so many things to carry can be very encumbering. Then, one must find a corner of a room, or some other place off stage in which to lean the instrument case, adding additional inconvenience.
As can be seen, there is a need for an instrument case with a built in stand which overcomes the problems noted above and others previously experienced by musicians of stringed instruments.
In one aspect of the present invention, a stand for an object comprises: an enclosure bay either inserted into or formed onto a surface of the object; a deploy arm comprising a top end and a bottom end, wherein the bottom end is pivotally secured within the enclosure bay; a leg pivotally secured to the deploy arm in between the top end and bottom end, wherein the leg comprises slider pins slidably engaged with slots formed in the enclosure bay; and wherein the stand comprises a deployed position comprising the deploy arm and the leg pivoted away from the enclosure bay and a retracted position comprising the deploy arm and the leg pivoted towards the enclosure bay.
These and other features, aspects and advantages of the present invention will become better understood with reference to the following drawings, description and claims.
The accompanying drawings, which are incorporated and constitute a part of this specification, illustrate an implementation of the present invention. The drawings herein, together with the descriptions, explain the principles and advantages of the invention.
The following detailed description is of the best currently contemplated modes of carrying out exemplary embodiments of the invention. The description is not to be taken in a limiting sense, but is made merely for the purpose of illustrating the general principles of the invention, since the scope of the invention is best defined by the appended claims.
Referring to
The deploy arm 32 of the present invention may include a top housing 40 and a bottom housing 42 securing internal components within. The deploy arm 32 may be pivotally secured within the enclosure bay 28 by a pivot pin 44. The pivot pin 44 is fixed to the deploy arm 32 and pivotally secured within pivot protrusions 70 fixed within the enclosure bay 28.
The present invention may further include a rider arm 52. The rider arm 52 may also include a pivot pin 54 that is pivotally secured within pivot protrusions 72 fixed within the enclosure bay 28. The rider arm 52 is operable to pivot and releasably connect with the latch key 46 within the deploy arm 32 when the deploy arm 32 and the leg 58, 66 are in the deployed position. In certain embodiments, the rider arm 52 includes a body portion having a first end and a second end. The first end includes the pivot pin 54. A slot is formed along the length of the rider arm 52 and a key latch lock pin 56 is secured to the second end, bridging the formed slot within the rider arm 52.
In certain embodiments, the present invention includes a key latch 46. The key latch 46 includes a button head portion and a body portion. The key latch 46 is pivotally connected within the deploy arm 32 by a key latch pivot pin 50 in between the button head and the body portion. A notch 48 is formed in the body portion of the key latch 46 and is formed to receive the key latch lock pin 56 of the rider arm 52. In certain embodiments, the body portion of the key latch 46 tapers from a wide portion adjacent the notch 48 to the button head portion.
The present invention may further include a button lock latch 30. The button lock latch 30 may protrude from within the enclosure bay 28 and releasably secure the stand in the retracted position. The button lock latch 30 may include a hook with a beveled edge. The deploy arm 32 may include a button lock 34. The button lock 34 may be secured to the top end of the deploy arm 32 and may be spring biased away from the deploy arm 32 by a button lock spring 38. The button lock 34 may include a lock slot including a flange formed at an opening leading into the lock slot. The hook of the button lock latch 30 is sized to fit within the button lock slot.
The leg 58, 66 of the present invention may include an upper portion 58 and a lower portion 66. The upper portion 58 may include top housing 64 and a bottom housing 62, securing internal components within. The upper portion 58 may be formed of side bars spaced apart to receive the deploy arm 32 in between. Each of the side bars may include a slider pin 60 secured at a top end. The enclosure bay 28 may include two flanges extending on opposite sides forming the bay in between. Each of the flanges may include a slot 98 running partially along the flanges. The slider pins 60 slidably engage the enclosure bay 28 within the slots 98 when the stand is transitioning from the retracted position to the deployed position and from the deployed position to the retracted position. The lower portion 66 may include an elongated post extending downward from the upper portion with a rubber foot 68 secured to the tip, to increase stability when in the deployed position.
In certain embodiments, the leg 58, 66 may be pivotally connected to the deploy arm 32 by a pivot pin 96. In such embodiments, the pivot pin 96 may be secured to the top housing 64 and a bottom housing 62 of the side bars of the upper leg portion 58. The pivot pin 96 may run through the top housing 40 and the bottom housing 42 near a center portion of the deploy arm 32. Thus, the deploy arm 32 may pivot about the pivot pin 96, thereby pivotally connecting the leg 58, 66 and the deploy arm 32.
The object of the present invention may be an instrument case, such as a guitar case 10. The guitar case 10 includes a housing having a back surface. The enclosure bay 28 is either inserted into a recessed portion of the back surface or formed onto the back surface. The guitar case 10 may include a plurality of feet 12 attached to the outer surfaces. For example, the guitar case 10 may include a foot 12 secured to each corner of the bottom surface so that a user may rest the guitar case 10 on the ground without the use of a deployed stand. The guitar case 10 may further include a felt base 102 with felt fitted slots and pockets secured within the housing. A guitar 104 may fit within a felt fitted slot. The guitar case 10 may be carried when the stand is in the non-deployed position using a handle 106 secured to the outer surface.
The guitar case 10 of the present invention may include a right door 22 and a left door 24. The right door 22 and the left door 24 may be attached to the case housing by hinges 18. In certain embodiments, the right door 22 may include an outer casing 14 and an inner cover 16. A rotary handle 20 may be disposed in between the outer casing 14 and inner cover 16, and exposed through the outer casing 14. The present invention may include a locking mechanism. The locking mechanism may be disposed in between the outer casing 14 and the inner cover 16. A rotary handle latch 82 may be secured to the rotary handle 20. An upper latch rod 84 is secured to the rotary handle 20 and fits within a slot 80 formed in the case housing 10, and extruding through a notch 78 in the felt base 102. A lower latch rod 86 is secured to the rotary handle 20 and fits within a slot 88 formed in the case housing 10. The left door 24 may include an outer casing 26 and an inner cover 36. The left door 24 may include a slot 94 formed on an inner edge, and sized to receive the rotary handle latch 82, thereby locking the case doors 22, 24 closed.
In use, to deploy the stand, a user may press down on the button lock 34. By pressing down on the button lock 34, the button lock latch 30 moves upward within the button lock slot so that the beveled edge of the button lock latch disengages from the flange of the button lock 34 allowing the deploy arm 32 to pivot. As the deploy arm 32 pivots away from the enclosure bay 28, the leg 58, 66 also pivots away from the enclosure bay 28 as the slider pins 60 slide downward within the enclosure bay slots 98. The rider arm lock pin 56 of the rider arm 52, slides along the tapered body of the key latch 46 until the rider arm lock pin 56 slides into the key latch notch 48. Once the rider arm lock pin 56 is within the key latch notch 48, both the deploy arm 32 and the leg 58, 66 are prevented from pivoting any further and are also prevented from returning to the retracted position. The stand is thereby locked in the deployed position.
To unlock the stand and transition the stand back to the retracted position, the button head of the key latch 46 may be pushed downward. The key latch 46 thereby pivots about the key latch pivot pin 50 such that the body portion of the key latch 46 is pivoted away from the rider arm lock pin 56, disengaging the rider arm lock pin 56 from the key latch notch 48. Disengaging the rider arm lock pin 56 from the key latch notch 48 allows the deploy arm 32 and the leg 58, 66 to pivot back towards the enclosure bay 28. The slider pins 60 slide upward within the enclosure bay slots 98 and the rider arm lock pin 56 slides along the tapered body of the key latch 46 towards the button head. In the retracted position, the rider arm 52 may pivot into the deploy arm 32 and the deploy arm 32 pivots in between the side bars of the leg 58, 66. The beveled edge of the button lock latch 30 engages the flange of the button lock 34 such that the button lock latch 30 slides into the button lock slot tensioning the button lock spring 38. As it does, the button lock 34 captures the button lock latch 30, thereby locking the stand in the retracted position.
It should be understood, of course, that the foregoing relates to exemplary embodiments of the invention and that modifications may be made without departing from the spirit and scope of the invention as set forth in the following claims.
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3866877 | Thompson | Feb 1975 | A |
5197701 | Olson | Mar 1993 | A |
7208666 | Burch | Apr 2007 | B2 |
8286926 | Van Dyne | Oct 2012 | B1 |
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20130327662 | Loban | Dec 2013 | A1 |
Number | Date | Country |
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WO 2011138710 | Nov 2011 | IT |
Number | Date | Country | |
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20170032772 A1 | Feb 2017 | US |