Musicians may use sheet music in performances and during practicing to play a musical piece. Sheet music for longer compositions are arranged on a number of separate pages or sheets. The musician may use a music stand to hold and prop up the individual sheets of music.
The accompanying drawings illustrate various examples of the principles described herein and are a part of the specification. The illustrated examples are given merely for illustration, and do not limit the scope of the claims.
Throughout the drawings, identical reference numbers designate similar, but not necessarily identical, elements.
As mentioned above, a musician may use a music stand to hold and prop up the individual sheets of music. However, the individual sheets of music may become disordered and unregistered with regard to one another such that the musician may find it difficult to rearrange the individual sheets. Further, when arranged on, for example, a music stand, the individual sheets may fall away from a music stand due to even a simple breeze. Thus, it is difficult to maintain the arrangement of sheet music in order and in a manner viewable by the musician.
Thus, examples described herein provide a system for arranging sheet music. The system may include a plurality of panels coupled to one another, a number of sleeves coupled to each of the panels to hold media to the panels, and a number of sliding mechanisms slidingly coupled to a number of grooves defined in the panels. Engagement of the sliding mechanisms between groves defined in adjacent panels secures the adjacent panels in a planar orientation relative to one another. The adjacent panels may be coupled to one another via a living hinge. The sleeves may be transparent.
The grooves are defined in the panels using laser cutting methods. The sleeves are coupled the panels along three edges, and the fourth edge is uncoupled to the panels. The fourth edge includes a non-linear edge. The sleeves may be coupled to both sides of the panel where each panel includes a front sleeve and a back sleeve. The panels include a number of apertures defined in the panels.
Examples described herein provide an expandable folder. The expandable folder includes a plurality of panels rotatably coupled to one another, and a number of sliding mechanisms slidingly coupled to a number of grooves defined in the panels. Engagement of the sliding mechanisms between groves defined in adjacent panels secures the adjacent panels in a planar orientation relative to one another. The expandable folder may further include a number of sleeves, wherein at least one sleeve is coupled to each of the panels to hold media to the panels. The sleeves are coupled to a front and a back of each of the panels. The plurality of panels are rotatably coupled to one another via a number of living hinges. The sleeves may be transparent. The grooves may be defined in the panels using a laser cutting methods. The sleeves are coupled the panels along three edges, and the fourth edge is uncoupled to the panels. The fourth edge may include a non-linear edge. The sleeves may be coupled to both sides of the panels where each panel includes a front sleeve and a back sleeve. The panels may include a number of apertures defined in the panels. The expandable folder may include a utensil holder coupled to a surface of at least one panel. The expandable folder may also include a fastener to couple the panels to one another in a collapsed orientation.
As used in the present specification and in the appended claims, the term “a number of” or similar language is meant to be understood broadly as any positive number comprising 1 to infinity; zero not being a number, but the absence of a number.
In the following description, for purposes of explanation, numerous specific details are set forth in order to provide a thorough understanding of the present systems and methods. It will be apparent, however, to one skilled in the art that the present apparatus, systems, and methods may be practiced without these specific details. Reference in the specification to “an example” or similar language means that a particular feature, structure, or characteristic described in connection with that example is included as described, but may not be included in other examples.
In one example, the media insertable into the folder (100) may be printed on any type of paper. A thin film covers each panel on the front and back as a sleeve (102), with three edges sealed and one unsealed to insert the media. The sleeves (102) serve as sheet coupling devices to couple the sheet music or other media to the folder (100). In this manner, the media may be removed from the sleeves (102), and replaced with other media such as in a situation where a user wishes to change out a number of pieces of sheet music. In one example, the unsealed edge (121) of the sleeve (102) may be cut to include a non-linear, angular or bowed edge to allow the media to be inserted without fraying the film after repeated multiple insertions of the media. The sleeves (102) may be made of a plastic.
Further, the sleeves (102) are made of a transparent or at least translucent material such that media inserted therein may be viewed by a user through the sleeves (102). Still further, the sleeves (102) may be included on both sides of the panels (101) of the folder (100). This allows a user to place media in the sleeves (102) on both sides of the folder (101), thus being able to include, in the example of
Each panel (101) includes a number of grooves (103) and channel locks (104) slidingly coupled to the grooves (103) acting as sliding mechanisms that lock the panels (101) in an open, extended, flat orientation with respect to one another. The grooves (103) are located at the top and bottom portions of each of the panels (101). Further, the grooves (103) are defined in adjacent panels (101) at their adjacent corners such that the grooves (103) are extended from one panel (101) to an adjacent panel (101).
The grooves (103) may be defined within the panels (101) using any number of methods. In one example, the grooves (103) are formed using a laser cutting method. Laser cutting methods provide for a high-quality groove with very low tolerances. However, the grooves (103) may be defined in the panels (101) using, for example, molding methods, extrusion methods, drilling methods, cutting methods, other material formation methods, or combinations thereof.
The channel locks (104) may be, in one example, compression fitted onto the panels (101) and into the grooves (103) using an elastic property of the channel locks (104) to snap the channel locks (104) into place. However, in another example, the channel locks (104) may be formed from the same piece of material as the panels using, for example, three-dimensional (3D) printing techniques.
Each panel (101) includes grooves (103) defined in top and bottom corners of the panel (101), and an adjacent panel (101) includes grooves (103) defined in the top and bottom corners that abut the other panel (101). In this manner, each panel (101) has grooves (103) defined in its top and bottom corners where it abuts another panel (101) in order to allow the channel locks (104) to move from a first groove (103) defined in a first panel (101) to a second groove (103) defined in the second panel (101) as if the two adjacent grooves (103) are a single groove (103). As to an engaged and disengaged state of the channel locks (104) within the grooves (103), and engaged state may be defined as a state at which the channel locks (104) preclude the bending of two adjacent panels (101) relative to one another. A disengaged state may be defined as a state at which the channel locks (104) are moved to one panel (101) clear of the living hinge (120) and not touching the adjacent panel (101) or its grooves (103).
In one example, the grooves (103) that travel from one panel to another may be defined at a longer distance into one panel (101) than the other adjacent panel (101) in order to give the channel locks (104) space to fully disengage from a locking position where the channel locks (104) span between adjacent panels (101). The other panel (101) may have a shorter groove (103) defined therein such that this second groove (103) defined in the adjacent panel (101) stops the channel lock (104) within the adjacent grooves (103) at a point at which at least a portion of the channel lock (104) spans the two adjacent panels (101) and obstructs the living hinge (120). For example, as depicted in
In one example, as depicted in
In one example, the folder (100) may include a fastener (602) to couple the panels (101) to one another in a collapsed orientation. As depicted in
The specification and figures describe an expandable folder. The expandable folder includes a plurality of panels rotatably coupled to one another, and a number of sliding mechanisms slidingly coupled to a number of grooves defined in the panels. Engagement of the sliding mechanisms between groves defined in adjacent panels secures the adjacent panels in a planar orientation relative to one another.
The preceding description has been presented to illustrate and describe examples of the principles described. This description is not intended to be exhaustive or to limit these principles to any precise form disclosed. Many modifications and variations are possible in light of the above teaching.
The present application claims benefit under 35 U.S.C. §119(e) of U.S. Provisional Application No. 62/362,993, filed Jul. 15, 2016. These applications are herein incorporated by reference in their entireties.
Number | Date | Country | |
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62362993 | Jul 2016 | US |