The portability of electronic devices has led to the creation of various mounts for securing the electronic devices. For example, electronic devices such as tablet computers, smart phones, personal data assistants, still and video cameras are now being mounted to bikes, paddle boards, helmets, and the like. Unfortunately, existing mounts are sometimes unreliable or are difficult to connect the electronic device to the mount.
Plug 12 comprises an adapter to be removably coupled to a case to facilitate removal coupling of mount 120 to the case. In the example illustrated, plug 12 adapts an existing case for use with the particular coupling mechanism provided on mount 120. In the example illustrated, plug 12 is configured to be releasably or removably connected to a case while providing a magnet to assist in magnetically retaining the case to mount 120. For purposes of this disclosure, the phrase “configured to” denotes an actual state of configuration that fundamentally ties the stated function/use to the physical characteristics of the feature proceeding the phrase “configured to”.
In the example illustrated, plug 112 is usable with case 30 illustrated in
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Overhangs 36 comprise structures that project from panel 32 into and partially across cavity 34. Overhangs 36 define an insertion opening 44 through which plug 12 is freely inserted and withdrawn when aligned with insertion opening 44. In the example illustrated, overhangs 36 form a polygonal insertion opening 44 for receiving a corresponding polygonal shaped portion of lock 26. In the example illustrated, overhangs 36 form a square or substantially square (cut off corners) insertion opening 44 for receiving a correspondingly shaped square shaped portion of plug 12.
Cavity floor 38 comprise a structure supported within cavity 34 and below insertion opening 44 and overhangs 36. In one implementation, cavity floor 38 comprises a spring-like structure, configured to resiliently flex in a direction perpendicular to insertion opening 44. In the example illustrated, cavity floor 38 comprises four resiliently depressable catches 40.
Catches 40 comprise two or more structures resiliently projecting from cavity floor 38 so as to resiliently flex or deflect relative to cavity floor 38 and relative to insertion opening 36. Catches 40 are configured to resiliently deflect as plug 12 is partially inserted into cavity 34. Catches 40 resiliently urge portions of plug 12 into frictional engagement with overhangs 36 to inhibit inadvertent or accidental rotation of plug 12 from a secured position in which plug 12 is out of alignment with opening 44 two a withdrawal position in which the shape of plug 12 received within cavity 34 is aligned with opening 44. In another implementation, cavity floor 38 comprises a fixed rigid or stationary structure or surface.
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Top 52 extends from lock 50 and is spaced from lock 50 so as to form a channel 58. Top 52 comprises cutouts or notches about its perimeter. As shown by
Magnet 54 comprises a ferromagnetic material bonded, captured or otherwise secured to plug 12 so as to apply a magnetic force to attract mount 120. In the example illustrated, plug 12 is integrally formed in the single unitary body out of the robber or polymeric material. In one implementation, plug 12 is molded about magnet 54 to retain magnet 54 in place to partially surround magnet 54. In one implementation, magnet 54 comprises a rare earth magnet. In some implementations, magnet 54 may be omitted. In yet other implementations, plug 12 is alternatively permanently provided as part of or integrally formed as part of case 30 or as part of the housing of portable electronic device 35. For example, in one implementation, the back of case 30 may provide apertures 62 and may incorporate therein a magnet, such as magnet 54. In yet other implementations, other couplers are usable for releasably connecting case 30 or other cases to mount 120.
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Prongs 128 extend from opposite sides of base 124 in a first plane. Prongs 128 are configured to be received between a pair of spaced automobile or vehicle vent louver blades. In the example illustrated, each of prongs 128 is resiliently flexible, allowing such prongs 128 to be inwardly flexed towards one another during insertion between the pair of spaced louver blades, wherein upon being released, prongs 128 to resiliently widen so as to grip mutually facing surfaces of the louver blades in the example illustrated, each of prongs 128 comprises an end portion 134 and forming a hook 136 which facilitate retention of prongs 128 with respect to the pair of vent louver blades.
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In the example illustrated, the outer face or surface of each of pads 144 carries an adhesive layer 146 which is initially covered by a peel off covering or panel 148. Removal of panel 148 exposes the adhesive layer 146 when mount 120s to be secured to an automobile vent, allowing prongs 128 to be releasably secured to the blades of the automobile vent. In other implementations, adhesive layer 144 may be omitted. In other implementations, compressible pads 144 may be omitted. In some implementations, pads 144 may be omitted, wherein adhesive is applied are carried by the surface of prongs 128 (at locations beneath the presently illustrated pads 144). In yet other implementations, end portions 134 are additionally or alternatively encapsulated by soft polymer or rubber-like material coating to facilitate gripping and reduce marring of the louver blades. In other implementations, such a coating may be omitted.
Prongs 130 comprise projections extending from an opposite side of base 124 as prongs 128. Prongs 130 are configured to be removably fastened to are connected to the case of a portable electronic device. Prongs 130 serve as a coupler for coupling mount 120 to case 30 and/or the portable electronic device 35. In the example illustrated, prongs 130 are configured to be removably connected to case 30, such as wherein prongs 130 are received within one of the sets of apertures 62A, 62B. In the example illustrated, prongs 130 extend in a plane perpendicular to the plane in which prongs 128 extend from base 1124. In other words, prongs 130 extend perpendicular to prongs 128. As a result, prongs 130 support the mounted case side-to-side, rather than up-and-down against gravity. Moreover, this orientation facilitates forming prongs 130 and prongs 128 from a single stamped sheet of material. In other implementations, prongs 130 may extend in the same plane for the same directions as prongs 128 from base 124. In other implementations, prongs 130 have other configurations for being releasably connected to or snapped to a case of a portable electronic device, wherein the configuration of prongs 130 may depend upon the configuration of the mounting portion of the case.
In the example illustrated, mount 120 is integrally formed as a single unitary body but for pads 144, adhesive layer 146 and peel away layer 148. In one implementation, the entirety of mount 120 is formed from a single stamped sheet of metal, such as high carbon spring steel, bent and deformed to form base 124, prongs 128 and prongs 130. As a result, fabrication of mount 120 is inexpensive. In other implementations, mount 120 may have other configurations.
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In the example illustrated, the spring steel forming prongs 128 and base 124 provide the resilient deflection of prongs 128. As a result, prongs 128 may be pinched towards one another against the spring force and subsequently released so to apply force against the louver blades 200 sandwiching the two prongs 128. In other implementations, prongs 128 are pivotally connected to one another by a hinge and are resiliently biased away from one another, in a widening direction, by a torsion spring. Such an implementation, manual pinching of prongs 128 is against the force of the torsion spring to facilitate insertion of prongs 128 between corresponding louver blades 200.
In other implementations, prongs 128 are alternatively configured to resiliently close so as to bear against face the louver blades that face away from one another. In one such implementation, prongs 128 are resiliently biased towards one another by a torsion spring, wherein mount 120 comprises handles or depression surfaces on an opposite side of the axis of the torsion spring as prongs 128, wherein the handles or depression surfaces are manually squeezable towards one another by which a person may manually widen prongs 128, against the force of the torsion spring, to facilitate positioning of the prongs about louver blades that are positioned between prongs 128 such that upon release, the prongs 128 resiliently returned towards one another to grip the sandwiched blades.
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While the preferred embodiments of the disclosure have been illustrated and described, it will be appreciated that various changes can be made therein without departing from the spirit and scope of the disclosure. For example, although different example embodiments may have been described as including one or more features providing one or more benefits, it is contemplated that the described features may be interchanged with one another or alternatively be combined with one another in the described example embodiments or in other alternative embodiments. One of skill in the art will understand that the invention may also be practiced without many of the details described above. Accordingly, it will be intended to include all such alternatives, modifications and variations set forth within the spirit and scope of the appended claims. Further, some well-known structures or functions may not be shown or described in detail because such structures or functions would be known to one skilled in the art. Unless a term is specifically and overtly defined in this specification, the terminology used in the present specification is intended to be interpreted in its broadest reasonable manner, even though may be used conjunction with the description of certain specific embodiments of the present disclosure.
The present application is related to co-pending U.S. patent application Ser. No. 14524587 filed on Oct. 27, 2014 by Chad M. Buchanan and entitled MOUNT LOCKING SYSTEM, the full disclosure of which is hereby incorporated by reference.