System and method for adjustable, quick-release, positive pressure, electronic device holder

Abstract

A system for holding an electronic device comprises a main body portion, and the main body portion has a surface. The system further comprises a first gripping plate and a second gripping plate, and each of the first and second holding portions comprises a holding surface that is generally perpendicular to the surface. The system further comprises first and second arms, and these first and second arms are interconnected with the first and second gripping plates so that the first and second arms can rotate and the first and second gripping plates can move linearly, and the first and second gripping plates are spring-driven to move together, and the first and second gripping plates are configured to move away from each other when the first and second arms move together, and the first and second gripping plates are formed complementarily to hold the electronic device.

Description

Background Technology

[0001] The use of electronic devices such as smartphones has become commonplace among consumers. Users carry smartphones everywhere and they are always kept somewhere on their bodies. However, sometimes it may be desirable to mount a smartphone (or other electronic device) in a hands-free holder or other configuration where the user does not need to hold the smartphone. Throughout this disclosure, the term "electronic device" will be used, but other devices such as tablets or any other electronic device may also be used with the system described herein. While various solutions are available, it is desirable to have a holder that can securely hold electronic devices of various sizes and quickly release the same electronic device. means of solving the problem

[0002] In one embodiment, a system for holding an electronic device comprises a body portion, and the body portion has a surface. The system further comprises a first gripping plate and a second gripping plate, and each of the first and second holding portions comprises a holding surface that is generally perpendicular to the surface. The system further comprises first and second arms, and these first and second arms are interconnected with the first and second gripping plates so that the first and second arms can rotate and the first and second gripping plates can move linearly, and the first and second gripping plates are spring-driven to move together, and the first and second gripping plates are configured to move away from each other when the first and second arms move together, and the first and second gripping plates are formed complementarily to hold the electronic device. Alternatively, the first gripping plate comprises a first bracket, and the first bracket is attached to the first arm and the second arm. In another alternative example, the first and second arms are mounted at the first and second rotation points, respectively, and the first bracket is attached to the first arm at a first radial distance from the first rotation point and to the second arm at a second radial distance from the second rotation point. In one alternative example, the first bracket is attached to the first and second arms via a post-in-slot system. In another alternative example, the second bracket is attached to the first arm at a second radial distance from the first rotation point and to the second arm at a first radial distance from the second rotation point, and the second bracket is attached to the first and second arms via a post-in-slot system. Alternatively, the second bracket and the first bracket are interconnected with the first arm at positions opposite the first rotation point. In another alternative example, the first and second arms are interconnected via gearing. Alternatively, the first and second arms are spring-loaded, thereby causing the first and second gripping plates to be spring-driven.In another alternative example, the first and second brackets, gearing, and slot-in-column system convert the rotational motion of the first and second arms into linear motion moving inward and outward on the first and second gripping plates. Alternatively, a magnetic interconnector is mounted on the main body portion. In another alternative example, a cylindrical mounting device is mounted on the main body portion. Alternatively, the cylindrical mounting device includes a strap and prong attachment mechanism. In another alternative example, the cylindrical mounting device includes a flat spring that bends to allow the cylindrical mounting device to rotate. Alternatively, the first and second rotation points are located on a line corresponding to the direction of movement of the first and second gripping plates. In another alternative example, the first and second rotation points are separated from each other.

[0003] In one embodiment, a mounting system for an electronic device includes a gripping region provided for gripping the electronic device, and the gripping region is spring-loaded to provide a gripping force between a first and a second gripping plate. The mounting system further includes a first and a second release lever, and the first and second release levers are configured to release the gripping force of the gripping region when the first and second release levers are pushed together, and the first release lever is mounted at a first central rotation point and the second lever is mounted at a second central rotation point. In one alternative embodiment, the first and second gripping plates move inward and outward in a moving plane. Alternatively, the first and second release levers move in a rotary manner, and the rotary movement of the first and second release levers is converted into a movement in a single plane for the first and second gripping plates through gearing between the first and second release levers and first and second sliding brackets for the first and second gripping plates, which are respectively attached to the first release lever of the first and second release levers at a first position and to the second release lever of the first and second release levers at a second position. In another alternative, a first position on the first release lever is located at a first distance from a first central rotation point, and a second position on the second release lever is located at the same first distance from a second central rotation point. Alternatively, the first and second gripping plates are released when the first and second release levers are rotated inward.

[0004] In one embodiment, a method for mounting an electronic device comprises the step of providing a holding system, wherein the holding system comprises a body portion, and the body portion has a surface. The holding system further comprises a first gripping plate and a second gripping plate, and each of the first and second holding portions comprises a holding surface that is generally perpendicular to the surface. The holding system further comprises first and second arms, wherein the first and second arms are interconnected with the first and second gripping plates so that the first and second arms can rotate and the first and second gripping plates can move linearly, and the first and second gripping plates are spring-driven to move together, and the first and second gripping plates are configured to move away from each other when the first and second arms move together, and the first and second gripping plates are formed complementarily to hold the electronic device. The method further comprises the step of pushing the first and second arms together. The method further comprises the step of inserting the electronic device between the first and second gripping plates. The method further comprises the step of releasing the first and second arms. In one alternative example, the method further includes the step of pushing the first and second arms together. The method further includes the step of removing the electronic device between the first and second gripping plates. The method further includes the step of releasing the first and second arms. Brief explanation of the drawing

[0005] FIG. 1 shows a front perspective view of one embodiment of a device holder. Figure 2 shows a front view of the device holder of Figure 1. Figure 3 shows a rear view of the device holder of Figure 1. Figure 4 shows a left side view of the device holder of Figure 1. Figure 5 shows a right side view of the device holder of Figure 1. Figure 6 shows a top view of the device holder of Figure 1. Figure 7 shows a bottom view of the device holder of Figure 1. Figure 8 shows an exploded view of the device holder of Figure 1. FIG. 9 shows a front perspective view of one embodiment of a device holder. Figure 10 shows a front view of the device holder of Figure 9. FIG. 11 shows a rear view of the device holder of FIG. 9. FIG. 12 shows a left side view of the device holder of FIG. 9. FIG. 13 shows a right side view of the device holder of FIG. 9. FIG. 14 shows a top view of the device holder of FIG. 9. FIG. 15 shows a bottom view of the device holder of FIG. 9. FIG. 16 shows an exploded view of the device holder of FIG. 9. FIG. 17 shows a drawing of the device holder of FIG. 1. Specific details for implementing the invention

[0006] Specific technical details are used herein merely for convenience and are not to be construed as a limitation to embodiments of systems and methods for adjustable, quick-release, positive pressure, electronic device holders (device holders) equipped with quick-release functions. In the drawings, the same elements are indicated throughout several drawings by using the same reference numerals. In the drawings, device holders are designed for various electronic devices, such as smartphones, tablets, and other electronic devices having screens generally oriented toward the user. While electronic devices for smartphones and tablets are most commonly used with device holders, embodiments may be designed to be reliably attached to a wide variety of electronic devices or other articles having a rear portion that can be placed against the device holder and can generally be held by a clamp that closes around the side of the device or article.

[0007] In many embodiments, the device holder includes two pivot points. The pivot points may also be referred to as rotation points. By including two pivot points, the device holder may include a hand lever, and the movement of this hand lever is maintained within the ergonomic range of a human hand while providing the clamps with a sufficient range along the X-axis to accommodate a range of telephone widths. Additionally, the Y-axis movement of the upper ends of the levers is minimized, which is necessary for the device to maintain a reasonable level of complexity. If the Y-axis movement of the upper ends of the levers is increased, it may be difficult to compensate for this Y-axis movement while converting the X-axis movement of the lever into a clamp. This is also true for the lower end of the lever, where the clamp (its frame) is interconnected with the end of the lever. In other words, the hand lever of the device needs to be positioned so that the handles on the ends are sufficiently close in the fully open position for a human hand to squeeze them together, while allowing the clamp to move within the range necessary to accommodate a device of any desired size. By including two pivot points for the hand lever (lever (130, 135)), a larger linear movement of the clamp (grip plate (110, 115)) for a given Y-axis movement is allowed. In some embodiments, by including two pivot points for the hand lever, the linear movement of the clamp within a Y-axis range similar to a double lever system having one pivot point can be doubled.

[0008] By setting the pivot points apart, the rotational movement of the levers can be converted into the horizontal movement of the clamp, while maintaining a reasonable lever arm length, within a range where the rotational movement of the connection points (between the clamps and lever arms) is primarily in the x-axis direction (the direction of movement of the clamp). This can be explained by a cosine function, as the cosine of an angle is equal to the x-value of the endpoint of the unit circle. If the horizontal movement of the clamp is considered to occur along the x-axis, the cosine function is zero when the lever is positioned at 1 / 2π radians. From 1 / 2π to 1 / 4π or 3 / 4π radians, most of the x-axis movement occurs (the cosine of 1 / 4π is approximately 0.7, and accordingly, about 70% of the x-axis movement from 1 / 2π to 1 / 4π radians has already occurred). In an embodiment of the device mounting portion, the lever and clamp are positioned to accommodate a smartphone, and the smartphone generally has a body width and height that are proportional to the overall width and height of the device holder. (In practice, the user desires a mounting portion (e.g., device mounting portion) that is possibly less than twice the width and less than twice the length of the smartphone, and possibly less than 1.5 times the width and length, and thus nearly the same size. In practice, if the width of the device holder could be infinitely long and the length of the lever arm could be infinitely long, it would be easy to maintain a radial rotation close to 1 / 2π radians.) In some embodiments, regarding the actual plate on which the mobile phone is placed, referred herein as the gripping plate, such plate is slightly narrower than the expected width of the smartphone and generally lower than the expected height of the smartphone. When the lever is mounted at a single point, in order to accommodate the typical minimum width of a smartphone, the lever may already be rotated to a degree close to 1 / 2 π rotation on the x-axis (i.e., 1 / 4 π radians (45 degrees) on the y-axis).Here, since the cosines of values ​​from 0 to 1 / 4 π radians and from 3 / 4 π to π radians are generally smaller in terms of absolute x-axis movement, the additional movement of the interconnection points of the levers will be mainly in the y-axis direction. Thus, by orienting the lever arms apart, the lever arms start at a position close to parallel with the y-axis (rotation of 1 / 2 π radians), yet can still accommodate the minimum expected width of the smartphone. In this case, as in many embodiments described herein, the rotation of the lever arms will be converted mainly into x-axis movement of the clamp from this starting position, thereby maximizing the usability of the device and the compressing effect of the lever arms.

[0009] Another feature is the gearing between the two levers. By including two pivot points, this gearing can be made into many configurations. The gearing and the two pivot points function to keep the levers and clamp mechanically synchronized. Additionally, they eliminate the need for a linear guide / track for the clamp (which is advantageous as guides create tolerance and friction issues). Finally, they keep the clamp and the device always centered (without needing to have other features / stops).

[0010] In many embodiments, the clamp is stacked on the upper part of the lever arm and attached to the upper and lower parts. The lower legs of the clamps are stacked vertically on top of each other, allowing the clamp to be attached to the lever on both sides of the pivot point. These double attachment points on the lever on each side of the pivot point significantly increase the stability and strength of the clamp. Additionally, the lever is approximately twice the length of the lower side of the pivot point, and accordingly, the travel distance at the end of the lever is approximately twice the force required to push the end of the lever. In other words, the clamping force on the device is approximately twice the force required to compress the lever. Furthermore, in many embodiments, the device holder utilizes a constant force spring design (also referred to as a clock spring) to deliver a relatively flat / constant force curve over the entire clamping range. (Although not to the same extent as other types of springs) the force increases as the spring is compressed, which can be desirable because it increases the clamping force in larger / heavier devices that require greater holding power.

[0011] FIG. 1 illustrates a front perspective view of one embodiment of a device holder (100). Generally, the device holder (100) includes a central housing (105). The central housing (105) provides adjustment of the device holder (100), including adjustment, tension, and locking mechanisms, and accordingly holds electronic devices of different sizes (such as smartphones). On both sides of the central housing (105), gripping plates (110, 115) are positioned. The gripping plates (110, 115) may include an internal gripping region (120). In some embodiments, the gripping region may be composed of a compressible material. The gripping region (120) may be contoured as illustrated or in various other ways, which increases the compressibility of the material while also increasing the friction provided by the material. The gripping region (120) may be a TPR (thermoplastic rubber) 40 SHORE A overmolded. The gripping region (120) may be a TPR (thermoplastic rubber) 5 to 100 SHORE A overmolded. Alternatively, silicon, rubber, and other materials may be used. Similarly, the plate region (125) on the central housing (105) may similarly contain a gripping material or may simply be flat. The gripping plates (110, 115) may be flat, inclined, or contoured to provide complementary retention of the electronic device. The device holder (100) also includes a release lever (130, 135). When this lever is pushed inward, the gripping plates (110, 115) extend away from each other and outward. When the lever (130, 135) is released, the gripping plates (110, 115) spring toward each other (positive pressure). In this way, any electronic device between them can be grasped, while being easily released through the lever (130, 135).

[0012] FIG. 2 illustrates a front view of a device holder (100). FIG. 3 illustrates a rear view of a device holder (100). Here, a mounting disk (310) can be seen. The mounting disk (310) comprises an outer frame (320), a magnet (330), and a high-friction material (340). Subsequently, the mounting disk may be placed on a ball having a magnetic material, and accordingly, the device may be placed, rotated, and positioned as desired by the user. In some embodiments, the magnetic disk is disclosed in U.S. Patent No. 8,602,376, which is incorporated herein by reference. Additionally, the device is held together using a screw (350). The device may also be held together using various other techniques.

[0013] FIG. 4 illustrates a left side view of the device holder (100). FIG. 5 illustrates a right side view of the device holder (100). FIG. 6 illustrates a top view of the device holder (100). FIG. 7 illustrates a bottom view of the device holder (100). FIG. 8 illustrates an exploded view of the device holder (100). Here, the internal operation of the device can be seen. A gripping plate (110, 115) is mounted on a sliding bracket (710, 780). The sliding bracket (710, 780) includes a column (715, 721) protruding from the rear side of the sliding bracket (710, 780). Additionally, a support member (720) is designed to support against a support area (785), and accordingly, the support area (785) can slide along the sliding bracket (710) from being positioned against the support member (720). A lever (130, 135) is also illustrated. The lever (130, 135) includes an opening (725, 730) that engages with a column (715, 721), respectively. The opening (725, 730) is a slot that allows the column (715, 721) to slide up and down the slot. In this way, a lever sliding bracket (710, 780) is attached to both levers (130, 135) at opposing radial positions. Radial movement of the arm is converted into inward and outward movement of the gripping plate (110, 115) and sliding of the column (715, 721) within the opening (725, 730). Additionally, the sliding bracket (780) includes a column (721), but is not shown in this drawing. The sliding bracket includes a support region (785) that supports a corresponding region on the sliding bracket (710) and slides against it. In this way, the movement of the lever (130, 135) affects the position of the gripping plate (110, 115). Additionally, the lever (130, 135) includes a gearing (740) that provides integral movement of the lever (130, 135). The stacked arrangement is believed to be safe. The lever (130, 135) is spring-loaded via a spring (745).Due to this geometry, in some embodiments, the clamping force provided by the gripping plate may be twice the force required to move the lever. A spring (745) is placed on the raised opening (750) and inside the hole in the lever (130, 135). In many embodiments, the spring (745) is a constant force spring or a clock spring. The spring force provided by such a spring is relatively constant. The raised opening (750) and the lever (130, 135) include a spring catch (755, 760), and the catch point on the spring (745) can provide tension to the lever (130, 135) by pushing. The rear portion (770) is attached to the front plate region (125) via a screw to hold the device together. Accordingly, the design provides a device that applies a certain tension through the gripping plates (110, 115), which can be released by pulling the levers (130, 135) together. Additionally, by providing upper and lower attachment points for attaching the gripping plates (110, 115) to the levers (130, 135), the gripping plates move integrally in an inward and outward manner, and the rotational motion of the lever is converted into bidirectional motion within a plane. In many embodiments, this conversion of rotational motion is achieved by attaching one lever arm to the upper and lower portions of the first sliding bracket and attaching the other lever arm to only one position on the second sliding bracket. The portion of the first bracket attached to the distant or distal lever arm is significantly larger than the portion attached to the nearby lever arm. The upper portion of the near lever arm and the lower portion of the distant or distal lever arm move integrally in the direction of the first lever arm. Of course, the terms upper and lower, and near and far, simply refer to relative terms related to the orientation depicted in the drawing and should be interpreted accordingly.

[0014] Additionally, FIG. 17 illustrates a drawing of a device holder (100) with the gripping region (120) removed. By removing the gripping region (120), the way the internal contents are assembled can be seen. Here, it can be seen how the raised opening (750) and the spring catch (755) capture the spring (745). Also, it can be seen how the lever sliding bracket (710, 780) is positioned on the upper part of the lever (130, 135). Based on this interconnection, it can be seen how the corresponding parts of the lever sliding bracket (710, 780) move as a whole when the lever (130, 135) is moved in a rotational direction. When looking down at the device toward the inner side of the rear portion (770), it can also be seen that the lever sliding bracket (710) is placed on the upper portion of the lever sliding bracket (780), and subsequently both are positioned on the upper portion of the lever (130, 135). This drawing is common to the device holder (900), except for the backstrap system.

[0015] FIG. 9 illustrates an alternative embodiment of a device holder (900) in which the rear magnetic portion is replaced by a backstrap system (910). In the alternative, many different holders / devices may be incorporated into the rear portion of the device. In some alternatives, this may be a handle, a stand, or a strap instead of the backstrap system of the magnetic rear portion. Additionally, the alternative may include a wrist attachment or bracelet system that allows the device to be worn. Additionally, the alternative may include a stand system that attaches to a vent, attaches to a surface (via adhesive), or attaches to a window or other surface using a suction cup. Additionally, a stand may be provided, and in some alternatives, a flexible arm may be provided and attached to the rear portion of the device holder. The device holder may be incorporated into or include any possible mounting and holding system. The backstrap system (910) is designed to bind a cylindrical object, such as a handle bar. Other aspects of the device within such a system are essentially the same. FIG. 10 illustrates a front view of a device holder (900). FIG. 11 illustrates a rear view of a device holder (900). FIG. 12 illustrates a left side view of a device holder (900). FIG. 13 illustrates a right side view of a device holder (900). FIG. 14 illustrates a top view of a device holder (100). FIG. 15 illustrates a bottom view of a device holder (900).

[0016] FIG. 16 illustrates an exploded view of a device holder (900). Here, the internal operation of the device can be seen. A gripping plate (110, 115) is mounted on a sliding bracket (710, 780). The sliding bracket (710, 780) includes a column (715, 721) protruding from the rear side of the sliding bracket (710, 780). Additionally, a support member (720) is designed to support against a support area (785), so that the support area (785) can slide along the sliding bracket (710) from being positioned against the support member (720). A lever (130, 135) is also illustrated. The lever (130, 135) includes an opening (725, 730) that engages with the column (715, 721), respectively. The opening (725, 730) is a slot that allows the column (715, 721) to slide up and down the slot. In this way, the lever sliding bracket (710, 780) is attached to both levers (130, 135) at opposing radial positions. Radial movement of the arm is converted into inward and outward movement of the gripping plate (110, 115) and sliding of the column (715, 721) within the opening (725, 730). Additionally, the sliding bracket (780) includes the column (721), but is not visible in this drawing. The sliding bracket includes a support area (785) that supports a corresponding area on the sliding bracket (710) and slides against it. In this way, the movement of the lever (130, 135) affects the position of the gripping plate (110, 115). Additionally, the lever (130, 135) includes a gearing (740) that provides integral movement of the lever (130, 135). The gearing (740) continuously mechanically synchronizes the lever and the gripping plate, eliminates the need for a track for the lever and the gripping plate, and holds the gripping plate (clamp) in the center. The lever (130, 135) is spring-loaded via a spring (745). The spring (745) is placed on the raised opening (750) and inside the hole within the lever (130, 135).The raised opening (750) and the lever (130, 135) include a spring catch (755, 760), and the catch point on the spring (745) can provide tension to the lever (130, 135) by pushing. The rear portion (770) is attached to the front plate area (125) via a screw to hold the device together. Accordingly, the design provides a device that applies a certain tension through the gripping plate (110, 115), which can be released by pulling the lever (130, 135) together. Additionally, by providing upper and lower attachment points for attaching the gripping plate (110, 115) to the lever (130, 135), the gripping plates move integrally in an inward and outward manner, and the rotational movement of the lever is converted into bidirectional movement within the plane. In many embodiments, the conversion of this rotational motion is achieved by attaching one lever arm to the upper and lower portions of the first sliding bracket and attaching the other lever arm to only one position on the second sliding bracket. The portion of the first bracket attached to the distant or distal lever arm is significantly larger than the portion attached to the nearby lever arm. The upper portion of the near lever arm and the lower portion of the distant or distal lever arm move integrally in the direction of the first lever arm. Of course, the terms upper portion and lower portion, near and distant, simply mean relative terms related to the orientations shown in the drawings and should be interpreted accordingly.

[0017] Additionally, the backstrap system (910) can be seen in an exploded view. This system is designed to surround a cylindrical object. This system includes a friction disc (1610) which may be manufactured from rubberized or other high-friction materials. The friction disc (1610) interfaces with a body (1620) within a slot (1660) formed in a complementary manner. The body (1620) includes a branch (1625) designed to interface with a hole within a rubberized belt portion (1650). A screw (1630) works in conjunction with a threaded insert (1655) to hold the assembly of the backstrap system (910) together. The screw (1630) is actually fitted onto the other side of the strap holder (1645) to interpose all parts. The spring (1635) provides pressure and tension to the backstrap system (910) when assembled, and accordingly, the friction between the friction disc, the rear portion (770), and the main body (1620) sufficiently prevents movement. At the same time, the spring (1635) may be compressed, and the device may be rotated relative to the rear portion (770). In many embodiments, the spring (1635) may be a wave-type disc spring. The backstrap system (910) also includes a boss (1640) that assists in the interconnection of the parts. In operation, as shown in FIGS. 12 and 14, a rubberized belt portion (1650) is surrounded through an opening within the main body (1620), and then a hole of the rubberized belt portion (1650) is positioned on the branch portion (1625). The main body portion (1625) may also include a high-friction region (410) or a rubberized or flexible material, which increases the attachment friction of the device. Since the belt portion (1650) is made to be stretchable, tension is applied to a cylindrical or other irregular object placed between the belt portion (1650) and the high-friction region (410).

[0018] In many embodiments of the device holder, a gripping region is provided to grip an electronic device. The gripping region is spring-loaded to provide a gripping force to an object placed between two gripping plates. Two release levers are provided to release the gripping force of the gripping region. The gripping plates move inward and outward in a single plane of movement. The release levers move in a rotary manner. The device holder is designed to convert the rotational movement of the release levers into movement of the gripping plates in a single plane. This is achieved through gearing between an arm and a sliding bracket for one of the gripping plates attached to the first arm of the arms at the first position and to the second arm of the arms at the second position. The arm has a central pivot point. A first position on the first arm is at a first distance from the central pivot point. A second position on the second arm is at the same first distance from the central pivot point. When the first and second arms rotate, the first and second arms rotate in opposite directions; however, as the converted plane of movement is in the same direction, the gripping plate is pulled in the same direction by the first and second arms. At the attachment position, an arrangement of columns within the slot is utilized, and accordingly, the columns slide within the slot to compensate for the conversion of the arm's rotational movement into planar / linear movement. Additionally, various interconnection mechanisms may be located on the rear side of the device holder. These include, but are not limited to, the illustrated magnetic system and the illustrated cylindrical interconnection system, as well as clamps, magnets, Velcro, snap fitting systems, pressure fitting systems, adhesives, and other fasteners (such as screws, bolts, etc.).

[0019] Although specific embodiments have been described in detail in the foregoing description and illustrated in the accompanying drawings, those skilled in the art will understand, from a review of the entire teaching of the disclosure and the broad concept of the invention, that various modifications and changes to such specific embodiments may be made. Accordingly, the scope of the disclosure is not limited to the specific examples and embodiments disclosed herein, but is intended to include modifications within the spirit and scope defined by the appended claims and any equivalents thereof.

Claims

Claim 1 A system for holding an electronic device comprising: a main body portion having a surface; a first gripping plate and a second gripping plate, wherein each of the first and second gripping plates comprises a holding surface perpendicular to the surface; and first and second arms, wherein the first and second arms are interconnected with the first and second gripping plates so that the first and second arms can rotate and the first and second gripping plates can move linearly, and the first and second gripping plates are spring-driven to move together, and the first and second gripping plates are configured to move away from each other when the first and second arms move together, and the first and second gripping plates are formed complementarily to hold the electronic device, and the first and second arms are interconnected through gearing to move together, and the first gripping plate comprises a first bracket, and the first bracket is attached to the first arm and the second arm. Claim 2 delete Claim 3 A system according to claim 1, wherein the first and second arms are mounted at the first and second rotation points, respectively, and the first bracket is attached to the first arm at a first radial distance from the first rotation point and to the second arm at a second radial distance from the second rotation point. Claim 4 In paragraph 3, the first bracket is attached to the first arm and the second arm through a slot-in-column system, the system. Claim 5 In paragraph 4, the second bracket is attached to the first arm at a second radial distance from the first rotation point and to the second arm at a first radial distance from the second rotation point, and the second bracket is attached to the first arm and the second arm through a slot-in-column system, a system. Claim 6 In paragraph 5, the system, wherein the second bracket and the first bracket are interconnected with the first arm at positions opposite to the first rotation point. Claim 7 delete Claim 8 A system according to claim 6, wherein the first and second arms are spring-loaded, thereby causing the first and second gripping plates to be spring-driven. Claim 9 In paragraph 5, the first and second brackets, gearing, and slot-in-column system converts the rotational motion of the first and second arms into linear motion moving inward and outward of the first and second gripping plates. Claim 10 A system according to claim 1, wherein a magnetic interconnection device is mounted on the main body portion. Claim 11 In paragraph 9, a system in which a cylindrical mounting device is mounted on the main body part. Claim 12 In paragraph 11, the cylindrical mounting device comprises a strap and a branch attachment mechanism, forming a system. Claim 13 In paragraph 12, the cylindrical mounting device comprises a flat spring that bends to allow the cylindrical mounting device to rotate, in a system. Claim 14 In paragraph 3, the system, wherein the first and second rotation points are located on a line corresponding to the direction of movement of the first and second gripping plates. Claim 15 In paragraph 14, a system in which the first and second rotation points are separated from each other. Claim 16 A mounting system for an electronic device comprising: a main body portion having a surface; a gripping area provided for gripping the electronic device, wherein the gripping area is spring-loaded to provide a gripping force between a first gripping plate and a second gripping plate, and the first and second gripping plates are formed complementarily to hold the electronic device and include a holding surface perpendicular to the surface; and first and second release levers interconnected with the first and second gripping plates, wherein the first and second release levers are interconnected through gearing to move together and are configured to release the gripping force of the gripping area when the first and second release levers are pushed together, wherein the first release lever is mounted at a first central rotation point and the second release lever is mounted at a second central rotation point, and the first gripping plate comprises a first bracket, and the first bracket is attached to the first release lever and the second release lever. Claim 17 A mounting system according to Clause 16, wherein the first and second gripping plates move inward and outward in a moving plane. Claim 18 A mounting system according to claim 17, wherein the first and second release levers move in a rotary manner, and the rotary movement of the first and second release levers is converted into a single planar movement for the first and second gripping plates through gearing between the first and second release levers and the first and second sliding brackets for the first and second gripping plates, respectively attached to the first release lever of the first and second release levers at the first position and the second release lever of the first and second release levers at the second position. Claim 19 A mounting system according to claim 18, wherein a first position on a first release lever is located at a first distance from a first central rotation point, and a second position on a second release lever is located at the same first distance from a second central rotation point. Claim 20 A mounting system according to claim 19, wherein the first and second gripping plates are released when the first and second release levers are rotated inward. Claim 21 A method for mounting an electronic device, comprising the step of providing a holding system, wherein the holding system comprises a main body portion having a surface; a first gripping plate and a second gripping plate, wherein each of the first and second gripping plates comprises a holding surface perpendicular to the surface; A method comprising: first and second arms, wherein the first and second arms are interconnected with the first and second gripping plates so that the first and second arms can rotate and the first and second gripping plates can move linearly, the first and second gripping plates are spring-driven to move together, the first and second gripping plates are configured to move away from each other when the first and second arms move together, the first and second gripping plates are formed complementarily to hold an electronic device, the first and second arms are interconnected through gearing to move together, the first gripping plate includes a first bracket, the first bracket is attached to the first arm and the second arm, and the first and second arms include the first and second arms; pushing the first and second arms together; inserting an electronic device between the first and second gripping plates; and releasing the first and second arms. Claim 22 A method according to claim 21, further comprising the steps of: pushing the first and second arms together; removing the electronic device between the first and second gripping plates; and releasing the first and second arms.

Images