Not Applicable
1. Technical Field
The present disclosure relates generally to an entertaining apparatus for a child, and more specifically to an entertaining apparatus transitional between at least two different operational configurations, while also being easily collapsible for storage.
2. Description of the Related Art
Child activity or entertainment devices (i.e., entertainers) are well known and are intended to provide a comfortable and secure environment for a child, while also being a source for entertainment and stimulation for the child. Given that young children are rapidly developing mentally, as well as physically, continued stimulation and interaction is considered vital in the continued physical and mental development of the child. Therefore, entertainers provide many benefits to the child, while also provide peace of mind to the child's caretaker, that the child is safe and secure.
Many conventional entertainers include an upper tray area defining a circular opening for receiving a seat, which supports the child. The tray may be elevated over an underlying support surface via a plurality of legs. The tray may include toys, games, or other items for entertaining or occupying the child.
While entertainers have been widely used for entertaining a child, there are various drawbacks associated with conventional entertainers. One particular drawback is that the entertainer is typically usable in a single operational configuration, which includes placing the child in the seat to allow the child to interact with the items on the tray. Conventional entertainers are typically not configured for use in other operational configurations, particularly operational configurations with the child outside of the seat. Most entertainers tend to be large and bulky in size, and therefore occupy a lot of space, which may be difficult to justify, particularly in smaller spaces, when the entertainer can only be used in a single operational mode.
Another drawback with certain existing entertainers is that they may be difficult to store. As noted above, the entertainer may include several legs coupled to the tray. While certain entertainers allow for the legs to be collapsed against the tray, the process of collapsing the legs may be difficult.
Accordingly, there is a need in the art for an improved entertainer, configured for use in more than one operational mode, and which is easily transitional to a collapsed configuration for storage. Various aspects of the present disclosure address this particular need, as will be discussed in more detail below.
In accordance with one embodiment of the present disclosure, there is provided an entertainer for a child that is specifically configured and adapted for use in several operational configurations. The entertainer includes a plurality of legs and a tray for supporting a plurality of activity items for the child. A multi-functional plate is attachable to the legs to allow the entertainer to assume a seat support configuration. The multi-functional plate is detachable from the legs and positionable over the tray to allow the entertainer to assume a table top configuration.
The entertainer may include a strap assembly coupled to the multi-functional plate, and adapted to selectively connect the multi-functional plate to one or more of the legs, or to connect the multi-functional plate to the tray.
According to another aspect of the disclosure, there is provided an entertainer for a child comprising a tray having a central opening extending around a central axis. A seat is coupled to the tray adjacent the central opening. A plurality of hinged toys are pivotally coupled to the tray, with each hinged toy being transitional between an upright position and a hinged position. At least a portion of each hinged toy moves toward the central axis as the hinged toy transitions from the upright position toward the hinged position. Other toys are releasably attachable to corresponding, complementary rails or tracks configured to provide a unique mode of play or interaction. A plate is selectively positionable on the tray and is configured to extend over the seat and each of the hinged toys, those removed from the rails optionally being stored within the seat of the entertainer. Each hinged toy includes a portion extending between the seat and the plate when the plate is positioned on the tray and the respective toy is in the hinged position.
According to yet another aspect of the disclosure, there is provided an entertainer comprising a tray having a central opening, and a seat coupled to the tray adjacent the central opening. A leg is coupled to the tray. A pivot plate is coupled to the leg and includes a pivot groove formed therein. A pivot pin defines a pin axis, with the pivot pin extending in the pivot groove. The pivot pin and pivot groove are collectively configured to restrict movement of the pivot pin when the pivot pin is in a first axial position and a first portion of the pivot pin is in a first portion of the pivot groove. The pivot pin is moveable along the pin axis from the first axial position to cause the first portion of the pivot pin to move out of the pivot groove and allow for selective movement of another portion of the pivot pin within the pivot groove. The pivot pin is positionable in a second axial position along the pin axis to create an interference, but not necessarily a robust lock, between the pivot pin and the pivot plate.
The present disclosure will be best understood by reference to the following detailed description when read in conjunction with the accompanying drawings.
These and other features and advantages of the various embodiments disclosed herein will be better understood with respect to the following description and drawings, in which:
Common reference numerals are used throughout the drawings and the detailed description to indicate the same elements.
The detailed description set forth below in connection with the appended drawings is intended as a description of certain embodiments of an entertainer for a child and is not intended to represent the only forms that may be developed or utilized. The description sets forth the various structure and/or functions in connection with the illustrated embodiments, but it is to be understood, however, that the same or equivalent structure and/or functions may be accomplished by different embodiments that are also intended to be encompassed within the scope of the present disclosure. It is further understood that the use of relational terms such as first and second, and the like are used solely to distinguish one entity from another without necessarily requiring or implying any actual such relationship or order between such entities.
Referring now to the drawings, wherein the showings are for purposes of illustrating a preferred embodiment of the present disclosure only, and not for purposes of limiting the same, there is depicted an entertainer 10 for a child. As will be described in more detail below, the exemplary entertainer 10 incorporates several unique and novel features when compared to conventional entertainers, including but not limited to, tray-mounted folding toys and rail stations, a selectively positionable multi-purpose plate, a strap assembly for connecting the multi-purpose plate in different positions on the entertainer, and a unique pivoting mechanism which allows for pivoting of entertainer support legs for easy stowing and deployment.
The general structure of the entertainer 10 includes a centrally located seat 12, a tray 14 surrounding the seat 12, a plurality of support legs 16 coupled to the tray 14, and a multi-purpose plate 18. The entertainer 10 shown in
The multi-purpose plate 18 generally includes a main body 20, and a peripheral sidewall 22 extending circumferentially around the main body 20. In the seat support configuration, and as viewed from the perspective shown in
The entertainer 10 defines a central axis 26 which passes through the seat 12, and about which the tray 14 is disposed. As shown in
It is contemplated that the seat 12 may be adapted to rotate relative to the tray 14 about the central axis 26 to allow the child to twist when placed in the entertainer 10. Rotation of the seat 12 relative to the tray 14 may be effectuated via one or more bearings positioned between support ring 28 and the tray 14.
Attached to the tray 14 are a plurality of toys which the child may play with while located within the entertainer 10. The toys include hinged toys 36 and rail stations 38 located around the seat 12. Specifically, three hinged toys 36 and three rail stations 38 are alternately disposed about the seat 12, though the number of each of these play features and their arrangement on the tray may be varied from that shown in
Referring now specifically to
The hinge base 40 includes a plate 46 and a plurality of tabs 48 extending downwardly from the plate 46, with the tabs 48 being configured to be received into corresponding grooves formed in the tray 14 to allow for securement of the hinge base 40 to the tray 14. The hinge base 40 further includes an opening 50 formed in the plate 46, and a hinge mount 52 extending from the plate 46 partially around the opening 50. The hinge mount 52 includes a pair of opposed walls 54, each having an opening 56 extending therethrough, and a wall 58 extending between the pair of opposed walls 54. A generally quadrangular recess 60 is formed on the inner surface of each wall 54, which is complimentary in shape to a portion of the locking pins 44, the purpose of such complimentary configuration being described in more detail below. A void or space is formed opposite the wall 58 to accommodate the hinging action of the hinge arm 42. The hinge base 40 is connected to the tray 14 such that the void or space opens up toward the entertainer seat 12, and the wall 58 is positioned away from the seat 12 relative to the void. This arrangement allows the hinged toy 36 to pivot toward the seat 12 and assume a collapsed position.
The hinge arm 36 includes a hinge body 62 adapted to be received within the hinge mount 52. The hinge body 62 includes a pair of opposed planar surfaces 64, and recesses 66 extending into the hinge body 62 from each planar surface 64. The recesses 66 are co-axially aligned with each other, and may also be in communication with each other, and thus, form a single void extending completely through the hinge body 62. Alternatively, the recesses 66 may each extend only partially through the hinge body 62, and thus, may be formed separate from each other. The recesses 66 are complimentary in shape to portions of the locking pins 44.
Each locking pin 44 includes a first quadrangular (e.g., square) portion 68, a second quadrangular (e.g., square) portion 70 slightly smaller than the first quadrangular portion 68, and a cylindrical portion 72. Each locking pin 44 is moveable relative hinge base 40 and hinge arm 42 between a locked position and an unlocked position. In the locked position, the first quadrangular portion 68 is positioned in the hinge body 62, the second quadrangular portion 70 is seated within a respective quadrangular recess 60 in the hinge mount 52, and the cylindrical portion 72 extends through a respective opening 56 in the hinge mount 52 and protrudes therefrom by a first distance. When each locking pin 44 is in the locked position, the complimentary engagement between the second quadrangular portion 70 and the hinge mount 52 effectively prevents pivotal movement of the hinge arm 42 relative to the hinge base 40. Each locking pin 44 is transitioned from the locked position to the unlocked position by pressing on the cylindrical portion 72. As each locking pin 44 is transitioned from the locked position toward the unlocked position, such locking pin 44 is advanced into the recess 66 formed in the hinge body 62, which unseats the second quadrangular portion 70 from the recess 60 in the hinge mount 52 and moves the second quadrangular portion 70 into the recess 66 formed in the hinge body 62. The unseating of the second quadrangular portions 70 from the hinge mount recess 60 allows the hinge body 62 to pivot relative to the hinge base 40 about the cylindrical portions 72 of the locking pins 44. When the locking pins 44 are simultaneously actuated to the unlocked positions, the cylindrical portions 72 remain in a protruding configuration relative to the hinge mount 52, albeit by a second distance less than the first distance defined by the cylindrical portion 72 when the locking pins are in the locked position. In this regard, each cylindrical portion 72 defines a pivot axis about which the hinge arm 42 pivots as it transitions between the deployed position and the collapsed position. In order to pivot the hinge arm 42 relative to the hinge base 40, both locking pins 44 must be placed in their unlocked configuration. Furthermore, a spring (not shown) may be used to bias the locking pins 44 toward the locked configuration. For instance, the spring may reside in the hinge body 42 and bias the locking pins 44 away from each other.
The outer surface of the hinge body 62 located between the opposed planar surfaces 64 defines a curved, arcuate configuration having two distinct regions. A first region has a radius that is larger than that of a second region, resulting in the formation of a shoulder 74 extending between the two regions. The shoulder 74 functions as a stop or abutment by contacting the wall 58 when the hinged toy 36 is in the deployed position. The hinge arm 42 may also include an auxiliary stop 76 extending radially outward from the hinge body 62, which also serves as a stop or abutment by contacting the plate 46 of the hinge base 40 when the hinged toy 36 is in the deployed position. The use of both the shoulder 74 and the auxiliary stop 76 may allow for distribution of forces transferred between the hinge arm 42 and the hinge base 40 when the hinge arm 42 is in the deployed position to provide a stronger connection therebetween.
Extending from the hinge body 62 is a main body 78, which is specifically configured and adapted to define an extremely low profile when the hinged toy 36 is in the collapsed position. In the exemplary embodiment, the main bodies 78 of the three hinged toys 36 define two general configurations. The first general configuration is a character main body 78a, with the character being defined by a body that is generally thin and relatively flat. In the exemplary embodiment, the character main body 78a is in the shape of a hippo, although it is understood that the character main body 78a may assume the shape of any animal, character, or shape known in the art. The hippo includes a wire 80 extending from the arms of the hippo, and several toy elements 82 are captured on the wire 80 and are selectively moveable along the wire 80 to provide entertainment to the child. The flat configuration of the character main body 78a allows the character main body 78a to assume a low profile over the tray 14 when the hinged toy 36 assumes its collapsed position.
The other general configuration of the main bodies 78 is a shaft 78b having a toy element 84 coupled to a distal end portion thereof opposite the hinge body 62. According to one embodiment, the shaft 78b is a generally rigid body having a slightly arcuate configuration, which allows the shaft 78b to assume a low profile relative to the tray 14 when the hinged toy 36 is in the collapsed position. In particular, the shaft 78b includes a concave inner portion 86 facing toward central axis 26, and a convex outer portion 88 facing away from the central axis 26. In the exemplary embodiment, the shafts 78b are in the form of a palm tree truck and a flower stem, respectively, with the corresponding toy elements 84 being palm branches and flower petals which are each capable of spinning relative to the associated shaft 78b, although it is again understood that the shafts 78b and toy elements 84 may assume differing shapes without departing from the spirit and scope of the present disclosure, e.g., the flower stem and flower petals could be substituted with a generic support shaft 78b supporting a lion head surrounded by a mane.
The shaft 78b defines a length as the distance between the hinge body 62 and a distal tip 90 of the shaft 78b. Each shaft 78b is of a prescribed length which allows the distal tip 90 of the shaft 78b, and the toy element 84 coupled thereto to reside within the tray opening 30 when the hinged toy 36 is in the collapsed position. In this regard, by allowing the toy element 84 to reside in the tray opening 30, the toy element 84 does not interfere with the tray 14 when the hinged toy 36 is in the collapsed position. Rather, the configuration of the shaft 78b allows the shaft 78b to extend over the edge of the seat 12 and place the toy element 84 in the opening 30, so as not to increase the profile of the hinged toy 36.
Referring now specifically to
When the multi-purpose plate 18 is placed on the tray 14, the multi-purpose plate 18 is inverted relative to its position in the seat support configuration. In particular, as viewed from the perspective shown in
The ability of the hinged toys 36 to assume their collapsed position and to define an extremely low profile allows the multi-purpose plate 18 to fit over the hinged toys 36, without requiring the multi-purpose plate 18 to have an awkwardly large depth. In this regard,
Referring now to
Each rail station 38 includes a rail station base 104 and a toy element 108 detachably connectable to the rail station base 104.
The opening 120 is configured to accommodate a locking tab 124. The locking tab 124 is moveably mounted to the rail station base 104, and is transitional between a locked position and an unlocked position. The locking tab 124 is pressed into the opening 120 as the locking tab 124 transitions from the locked position toward the unlocked position. A cover 126 is attached to the base plate 110 and is adapted to enclose a spring 128 extending between the cover 126 and the locking tab 124 to bias the locking tab 124 toward the locked position.
The rail station base 104 accommodates the toy element 108 by allowing the toy element 108 to slide along the rail 114 between the locking tab 124 and the opposite end of the rail 114. The toy element 108 includes a main body 130 having a groove 132 formed in a lower portion of the main body 130. The groove 132 is complimentary in shape to the rail 114. Along these lines, the groove 132 includes a wide section, which accommodates the top wall 118 of the rail 114, and a narrow section, which accommodates the stem wall 116 of the rail 114. The toy element 108 may include wheels 134 to facilitate movement of the toy element 108 over the rail 114. Furthermore, the toy element 108 may include a resilient or flexible tab 136, which interfaces with grooves 138 formed on the top of the rail 114. Receipt of the tab 138 within a particular groove 138 may keep the toy element 108 in a preferred position along the rail 114 when not being pushed or pulled by the child. In the exemplary embodiment, the toy elements 108 of the three rail stations 38 take the shapes of an elephant, turtle, and giraffe, although it is understood that the toy elements 108 may each take on any shape without departing from the spirit and scope of the present disclosure. For instance, the shapes of the toy elements 108 may include a car, train, truck, ball, character, food item, etc.
To use each rail station 38, the toy element 108 is initially connected to the rail station base 104 by depressing the locking tab 124 and aligning the groove 132 in the toy element 108 with the T-shaped rail 114. Once aligned, the toy element 108 is advanced over the rail 114, with the rail 114 being received within the groove 132. Once the toy element 108 is completely moved onto the rail 114, the locking tab 124 is released, thereby allowing the spring 128 to move the locking tab 124 to the locked position. The toy element 108 may then be played with by the child by moving the toy element 108 along the rail 114. The toy element 108 is retained on the rail 114 on one end via the locking tab 124, and on the other end via the end wall 122. In other words, should the toy element 108 reach an end of the rail 114, the toy body 130 will contact either the locking tab 124 or the end wall 122 to keep the toy element 108 on the rail 114.
To remove the toy element 108 from the rail 114, the locking tab 124 is depressed, and the toy element is moved toward the depressed locking tab 124, and continuous to move over the locking tab 124, and eventually away from the rail 114. Once the toy element 108 passes over the locking tab 124, the locking tab 124 may transition back to the locked position.
It is contemplated that the toy element 108 may be removed from the rail 114 for several different reasons. One reason may be to transition the entertainer 10 from the seat support configuration to the table top configuration. Along these lines, the toy elements 108 may be removed from the corresponding rails 114 to allow the multi-purpose plate 18 to be placed on top of the tray 14, as explained in more detail above. Each rail 114 defines a low profile, such that once the corresponding toy element 108 is removed, the rail 114 does not interfere with the multi-purpose plate 18 when the multi-purpose plate 18 is placed over the tray 14. When the entertainer 10 is in the table top configuration, the toy elements 108 may be stowed in the seat 12, or played with by the child on top of the table. Another reason the toy elements 108 may be removed from the rails 114 is to replace any broken toy element 108, or swap out one toy element 108 for another toy element 108.
Referring now to
Referring now specifically to
When the entertainer 10 is in the seat support configuration, the strap 98 extends between the multi-purpose plate 18, and a respective leg 16 of the entertainer 10. Each leg 10 includes a foot 160 formed adjacent the lower end of the leg 16 adapted to engage with the corresponding strap 98. As shown in
To transition the multi-purpose plate 18 from the seat support configuration to the table top configuration, all of the straps 98 are disengaged from their respective legs 16 by lifting each strap 98 to remove the fin 166 from the slot 150, and withdrawing the strap 98 from the opening 162 in the corresponding leg 16. Referring now specifically to
Referring now to
The lower body 170 is a sleeve that extends around a portion of the upper body 168, and is adapted to allow the upper body 168 to be selectively advanced into the lower body 170 to shorten the effective height of the entertainer 10. Alternatively, the upper body 168 may be selectively withdrawn from the lower body 170 to increase the effective height of the entertainer 10. The lower body 170 includes a series of openings 180 formed therein and arranged in an array, with each opening 180 corresponding to a different height of the entertainer 10. The lock button 174 is received within one of the openings 180 to set the height of the entertainer 10. In the exemplary embodiment, each lower body 170 includes three openings 180 to define three preset heights.
To modify the height of the entertainer 10, the user simply presses the lock button 174 until the lock button 174 is completely withdrawn from the corresponding opening 180 and no longer interferes with the lower body 170, thereby allowing the upper body 168 to move relative to the lower body 170. The upper body 168 is moved until it is aligned with the desired opening 180, which allows the lock button 174 to extend therethrough. In this regard, the inherent resiliency of the tab 176 urges the lock button 174 through the opening 180 when the lock button 174 is aligned with the opening 180. This adjustment process is repeated on each leg 16 until the length of each leg 16 is equal. It will be recognized that the lower body 170 of each leg 16 further defines a corresponding foot 160 as described above for accommodating a corresponding strap 98 of the strap assembly.
Referring now to
Each leg pivot 182 includes a pivot pin 184, a pivot housing 186, and a pivot groove 188 coupled to the upper body 168 of the leg 16. With regard to the pivot groove 188, as shown in
With reference now specifically to
Each pivot pin 184 includes an actuating body 200, a main body 202, and a shaft 204 extending between the actuating body 200 and the main body 202. The actuating body 200, main body 202, and shaft 204 are aligned along a common pin axis 205. Each pivot pin 184 additionally includes a flange 206 positioned between the actuating body 200 and the shaft 204, with the flange 206 extending radially outward relative to the shaft 204 and including an extension segment having a spring retainer 208 extending therefrom. The exemplary spring retainer 208 includes a cross or X-shaped projection extending from the extension segment of the flange 206.
The main body 202 of each pivot pin 184 itself includes two discrete regions, namely, a large region 210 that is of a constant diameter, and a chamfered region 212 positioned between the large region 210 and the shaft 204, with the chamfered region 212 having a tapered diameter that decreases from the large region 210 toward the shaft 204.
The pivot pin 184 is engaged with the pivot housing 186, which is mounted on the tray 14. As can be seen in
During use, when the pivot pin 184 is in the neutral position, the main body 210 of the pivot pin 184 is received in the large opening 192 of the pivot groove 188. The biasing force of the spring 214 urges the flange 206 of the pivot pin 184 into contact with the pivot housing 186, and thus, the actuating body 200 of the pivot pin 184 protrudes a first distance from the pivot housing 186. This position of the pivot pin 184 corresponds to the leg 16 being deployed relative to the tray 14, with the leg 16 extending generally perpendicular from the tray 14. When the pivot pin 184 is received in the large opening 192, the pivot pin 184 is prevented from traveling within the groove 188, as the diameter of the large region 210 is larger than the width of the arcuate groove segment 196. Thus, the interaction between the pivot pin 184 and the pivot plate 190 locks the leg 16 in place in its extended or deployed position.
When the user wants to move the leg 16 from its deployed position to its collapsed or folded position, the user simply presses on the pivot pin 18, overcoming the biasing force of the spring 214, and advancing the pivot pin 184 along the pin axis 205 until the shaft 204 of the pivot pin 184 resides in the pivot groove 188. The diameter of the shaft 204 is smaller than the diameter of the large opening 192, small opening 194 and the width of the arcuate groove segment 196. Thus, when the shaft 204 resides within the pivot groove 188, the pivot pin 184 may be moved to any location of the pivot groove 188. Therefore, by pressing the pivot pin 184 from its neutral position to its actuated position, which moves the main body 202 out of the groove 188 and places the shaft 204 within the groove 188 (i.e., within the same plane as the groove 188), the leg 16 may be freely pivoted to its folded position. As the leg 16 pivots from the deployed position to the folded position, the shaft 204 of the pivot pin 184 travels in the groove 188 from the large opening 192, through the arcuate groove segment 196 until it reaches the small opening 194.
Once the shaft 204 is in the small opening 194, the leg 16 has assumed the folded position, as shown in
However, due to the taper defined by the chamfered region 212, the leg 16 is not “locked” in the folded position. Rather, in the event someone attempts to move the leg 16 from the folded position toward the deployed position without pressing the pivot pin 184, if enough force is applied to overcome the bias of the spring 214, the tapered configured of the chamfered region 212 causes the pivot pin 184 to interface with the pivot plate 190 in a manner which moves the pivot pin 184 along the pin axis 205, until the shaft 204 resides in the pivot groove 188. Once the shaft 204 is in the pivot groove 188, the leg 16 may be more freely transitioned to the deployed position, which corresponds to the large region 210 of the main body 202 being received in the large opening 192.
As an alternative to the foregoing, a user may transition the leg 16 from the folded position to the deployed position by pressing the pivot pin 184 to place the shaft 204 within the pivot groove 188 to allow the pivot pin 184 to freely transition from the small opening 194, through the arcuate groove segment 196, and into the large opening 192. The option of pressing the pivot pin 184 to allow for a more unrestricted transition from the folded configuration to the deployed configuration may be preferred, as it may reduce wear and tear on the pivot pin 184 and the pivot plate 190.
The tapered configuration of the chamfered region 212, and its interaction with the pivot plate 190 described above, is designed to protect the pivot pin 184 from breaking in the event a user forgets to press the pivot pin 184 to effectuate such transition. Along these lines, when conventional pivot pins or lock pins are used in articulating structures, users are sometimes mistakenly of the belief that the pin only functions as a lock when the articulating structure is in a deployed position, but does not function as a lock when the articulating structure is in a stowed position. Therefore, when the user attempts to move the articulating structure from its stowed position to its deployed position, the user may break the articulating structure, or perhaps cause injury to themselves.
The configuration of the chamfered region 212, and the interference with the pivot plate 190 attempts to serve the function of a locking pin, while at the same time mitigating damage to the entertainer 10 or injury to the user. Along these lines, the interference between the chamfered region 212 and the pivot plate 190, resulting from the relative configurations of the chamfered region 212 and pivot plate 190, as well as the bias applied by the spring 214, causes the leg 16 to remain in the folded position, unless a force is applied to the leg 16, which overcomes the interference between the chamfered region 212 and the pivot plate 190. According to some implementations, the interference between the pivot pin 184 and the pivot plate 190 is sufficient to retain the leg 16 in the folded configuration and resist the force of gravity. However, such interference may be overcome before the pivot pin 184 breaks.
Also, to reiterate the explanation given above, it will be understood that the aforementioned description regarding the interactive engagement of each pivot pin 184 to a corresponding pivot plate 190 (including the pivot groove 188 therein) is equally applicable to each of the opposed pair of leg pivots 182 used to pivotally connect each leg 16 to the tray 14. In this regard, the simultaneous actuation of the pivot pins 184 of the leg pivots 182 of the pair is needed to facilitate movement of the corresponding leg 16 from the expanded or deployed state to the folded or collapsed state. However, while such simultaneous actuation is optimally also used to facilitate movement from the folded state back to the deployed state, it is not essential due to the above-described functionality imparted by the chamfered regions 212 of the pivot pins 184.
The particulars shown herein are by way of example only for purposes of illustrative discussion, and are not presented in the cause of providing what is believed to be most useful and readily understood description of the principles and conceptual aspects of the various embodiments of the present disclosure. In this regard, no attempt is made to show any more detail than is necessary for a fundamental understanding of the different features of the various embodiments, the description taken with the drawings making apparent to those skilled in the art how these may be implemented in practice.
This application claims the benefit of U.S. Provisional Application Ser. No. 62/500,182, filed May 2, 2017, the contents of which are expressly incorporated herein by reference.
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