Case for a personal electronic device

Abstract

A case for storing and carrying personal electronic devices can include a first shell and a second shell each including a rigid layer, a foam layer, batting, and an outer jacket. The rigid layer can have a concave inner surface and a convex outer surface, the foam layer can cover the outer surface of the rigid layer, the batting can cover the foam layer, and the outer jacket can cover the batting. The first shell and the second shell can be hingedly connected at their edges for opening and closing. When closed together, the first shell and the second shell can form an interior cavity of the case.

Description

Cross-references to related applications

[0001] This application claims priority and benefit to U.S. Patent Application No. 18 / 418,044, filed January 19, 2024, entitled “Case for a Personal Electronic Device.” The entire contents of this application are incorporated herein by reference. Technical Field

[0002] The described embodiments generally relate to housings for carrying personal electronic devices. More specifically, embodiments of the invention relate to an electronic device travel housing having features for protecting and adjustably storing and carrying personal electronic devices such as head-mounted displays and accessories. Background Technology

[0003] Many portable electronic products benefit from storage and transport in travel cases. Travel cases allow for the carrying and protection of portable electronic products. Current travel cases used for electronic products are often made of rigid materials such as polymers, which are molded into their final form. Such rigid cases tend to be stiff and unyielding, and may be uncomfortable to hold. Furthermore, such cases often lack versatility because they are not easily adjustable to fit different sized devices—such as different sized head-mounted displays—and keep them in a secure position.

[0004] Therefore, there is a need for a new and improved travel housing material and / or structure that can protect electronic devices and provide cushioning properties during travel, while lasting longer and being able to easily adapt to and securely hold electronic devices of different sizes. Summary of the Invention

[0005] Some embodiments relate to a housing for storing and carrying personal electronic devices such as head-mounted displays. The housing may include a first shell and a second shell hinged together at their edges. When closed, the first and second shells together form an internal cavity. Each of the first and second shells may include: a rigid layer having a concave inner surface and a convex outer surface; a foam layer disposed on and covering the outer surface of the rigid layer; wadding disposed on and covering the foam layer; and an outer sheath disposed on and covering the wadding. The outer sheath may form the outermost surface of its respective shell. The housing may be configured to open and close by rotating the first and second shells relative to each other about their hinged connection.

[0006] In some implementations, the rigid layer may be thermoformed polycarbonate, and the foam layer may be polyethylene foam.

[0007] In some embodiments, each shell may also include a nonwoven fabric layer located between the wadding and the foam layer. The outer sheath may be a polyester fabric.

[0008] In some implementations, the fusible core may be compressible, and the outer sheath may be flexible, such that the outermost surface of each shell may not maintain a fixed shape while held by the user.

[0009] In some implementations, the rigid layer can maintain its shape while being held by the user.

[0010] In some implementations, the distance between the outer sheath and the foam layer changes during hand-held operation, in the area where the user can apply force.

[0011] In some implementations, the flocs can be formed in multiple layers, and the nominal thickness of the flocs can increase toward the midpoint of the outer surface of their respective shells.

[0012] In some implementations, the floss can space the outer sheath from the foam layer, with a maximum spacing of at least 1 / 4 inch.

[0013] In some embodiments, the housing may also include a zipper, with the cooperating portion of the zipper disposed along the edge of each of the first and second housings.

[0014] In some embodiments, each of the first and second shells may further include molded foam disposed on and covering the inner surface of the rigid layer.

[0015] In some implementations, the molded foam may be covered by an internal fabric.

[0016] In some embodiments, the shape of the inner surface of the molded foam may not conform to the shape of the inner surface of the rigid layer. This shape may include a pair of recesses located at the front end of at least one of the first and second shells.

[0017] In some embodiments, the outer sheath may form a first pocket below the hinged connection between the first and second housings, and a second pocket on the opposite side of the first pocket. In some embodiments, the housing may also include a strip extending between the first and second pockets.

[0018] In some embodiments, the strip may have a nominal position and an extended position, in which the space between the strip and the rest of the housing is larger than in the nominal position. In some embodiments, portions of the strip may be able to extend from a first pocket and a second pocket to move the strip to the extended position, and portions of the strip may be able to retract into the first pocket and the second pocket to move the strip to the nominal position.

[0019] In some implementations, the strip may be offset toward a nominal position such that portions of the strip will automatically retract into the first and second pockets without any applied force.

[0020] Some embodiments may involve a portable storage housing. The portable storage housing may include a rigid shell, a flexible sheath surrounding the rigid shell, and a wadding disposed between the rigid shell and the flexible sheath. The wadding may space the flexible sheath from the rigid shell such that when the housing is held by a user, the wadding is compressed against the rigid shell.

[0021] In some implementations, the thickness of the sheath may be increased above the outer edge of the housing in a direction away from the edge of the rigid housing.

[0022] In some implementations, the rigid shell may be formed by a first shell and a second shell that are hinged together, and the first shell and the second shell are opened and closed by a locking mechanism.

[0023] In some embodiments, the portable storage housing may also include a nonwoven fabric layer located between the wadding and the foam layer. The sheath may be made of polyester fabric in some embodiments.

[0024] In some implementations, the sheath may be formed from multiple sheets of nonwoven material joined at the seams.

[0025] Some embodiments relate to a housing for storing and carrying personal electronic devices such as head-mounted displays. The housing may include a first and second housing forming an internal cavity, and a sliding mechanism coupled to the first housing. In some embodiments, the sliding mechanism may include: a sliding base fixed to a rigid layer of the first housing; a shield movably connected to the sliding base; and a sliding handle operable by a user to lock or unlock relative to the sliding base. The shield may extend away from the sliding base within the first housing and may be configured to translate linearly relative to the sliding base. The shield may adjustably define a product receiving space between the shield and a front portion of the first housing. When the sliding handle is locked, the shield may remain in place relative to the sliding base. When the sliding handle is unlocked, the sliding handle may be operable by a user to slide the shield relative to the sliding base.

[0026] In some implementations, the slider handle can be fixed at any of a plurality of positions relative to the sliding base, such that the guard can similarly remain in place relative to the sliding base at any of a plurality of positions.

[0027] In some implementations, the shield can be held in multiple positions, each of which defines a different distance between the shield and the front portion of the first housing, thereby defining different dimensions of the product receiving space.

[0028] In some implementations, the shield may be connected to the sliding base at the center of the shield, and the side wings of the shield may extend laterally over and beyond the sliding base.

[0029] In some implementations, the shield may be spaced apart from the sidewall of the first housing.

[0030] In some embodiments, the sliding mechanism may further include a slider movably coupled to a sliding base and configured to translate linearly along a sliding track of the sliding base. In some embodiments, a cover may be fixed to the slider and movably connected to the sliding base via a fixed connection thereto.

[0031] In some implementations, the slider handle may be fixed to the slider.

[0032] In some embodiments, the slider mechanism may further include a first attachment mechanism fixedly positioned relative to the first housing. In some embodiments, the slider handle may include a second attachment mechanism fixed to the slider handle and removably coupled to the first attachment mechanism. When the second attachment mechanism is coupled to the first attachment mechanism, the slider handle may be in a fixed position. When the second attachment mechanism is not coupled to the first attachment mechanism, the slider handle may be in a released position.

[0033] In some implementations, the first attachment structure and the second attachment structure can be hook and loop fasteners.

[0034] In some embodiments, when fixed, the sliding handle can be released by pulling it in a direction away from the sliding base and the first housing. Alternatively, the sliding handle can be released without applying force in the translational direction of the cover.

[0035] In some embodiments, each of the first and second shells may include a rigid layer and a molded foam layer disposed on and covering the inner surface of the rigid layer. The molded foam layer may be covered by an inner fabric.

[0036] In some implementations, the front portion of the first housing may be internally formed of molded foam, thereby defining a product receiving space between the cover and the molded foam in the front portion of the first housing.

[0037] In some implementations, the molded foam can form a concave boundary of the product receiving space, and the shield can form a convex boundary of the product receiving space.

[0038] Some embodiments may relate to a product holding system for storing personal electronic devices. The product holding system may include: a housing forming a cavity with a bottom wall and side walls, the bottom wall forming a mechanical ground for the product holding system; and a shield movably coupled to the mechanical ground and constrained to translate along a straight line. The shield may form an adjustable product receiving space between its front surface and a front inner wall of the housing, and may extend laterally toward a side wall of the housing, the lateral extension of the shield being spaced apart from the side wall. The shield may be temporarily and repeatedly secured relative to the mechanical ground at any of a plurality of locations. In some embodiments, when secured relative to the mechanical ground, the shield may not translate relative to the mechanical ground, and when released from securing relative to the mechanical ground, the shield may translate relative to the mechanical ground.

[0039] In some embodiments, the product holding system may further include: a sliding base fixed to a mechanical foundation and having a track along a side of a closed shape; a slider movably coupled to the sliding base and constrained to translate along a straight line by a portion thereof sliding within the track; a slider handle fixed to the slider and including a releasable first attachment mechanism on its bottom surface; and a second attachment mechanism fixed in place relative to the mechanical foundation. A shield may be coupled to the slider and thereby to the mechanical foundation, and the constraint on the movement of the slider constrains the movement of the shield. In some embodiments, attaching the first attachment mechanism to the second attachment mechanism holds the slider in place—and thereby holds the shield in place, thus preventing translation of the slider. Alternatively, detaching the first attachment mechanism from the second attachment mechanism allows for the releasable slider—and thereby releases the shield—to translate and reattach at different locations, thereby changing the dimensions of the product receiving recess.

[0040] In some implementations, the first attachment mechanism and the second attachment mechanism are hook and loop fasteners.

[0041] In some embodiments, the slider handle may include a rigid first stop that moves with the slider handle and prevents the first attachment mechanism from buckling. The slider may include a rigid second stop that moves with the slider. In some embodiments, when the first attachment mechanism is attached to the second attachment mechanism, the first stop may be positioned behind and adjacent to the second stop.

[0042] In some implementations, when the electronic device is received in the product receiving space and the first attachment mechanism is attached to the second attachment mechanism, the load applied by the electronic device on the housing can be transferred through the housing to the second stop, the first stop, and the mechanical foundation.

[0043] In some embodiments, the product retaining system may further include a slider that is constrained to translate linearly relative to the mechanical base by sliding a portion of it within a track fixed to the mechanical base. A shield may be coupled to the slider and thus to the mechanical base. The constraint on the movement of the slider constrains the movement of the shield. In some embodiments, the product retaining system may further include a decorative ring that forms an opening through the sliding base and provides forward and backward stops for the translational movement of the slider.

[0044] In some embodiments, the product holding system may further include a slider constrained to translate linearly relative to the mechanical base by sliding a portion of it within a track fixed to the mechanical base. A shield may be coupled to the slider and thereby to the mechanical base, and the constraint on the movement of the slider constrains the movement of the shield. The slider may include: a lower portion of the slider, which is partially disposed below the sliding base and within the track; and a shield holding portion configured to hold the shield in an upright position. The shield holding portion may extend upward from the mechanical base into the cavity, and the shield may be secured to the shield holding portion at a central portion of the shield with a single connection. Attached Figure Description

[0045] This disclosure will be readily understood from the following detailed description taken in conjunction with the accompanying drawings, in which the same reference numerals denote the same structural elements: Figure 1 An open view of the housing used for the electronic device is shown.

[0046] Figure 2 It shows Figure 1 The shell of the product.

[0047] Figure 3 A right-side perspective view of the housing in its closed state is shown.

[0048] Figure 4 A left perspective view of the housing in its closed state is shown.

[0049] Figure 5A and Figure 5B An exploded view of the first shell of the casing is shown together, in which Figure 5A The upper section of the first shell is shown, and Figure 5B The lower section of the first shell is shown.

[0050] Figure 6A and Figure 6B An exploded view of the second shell of the shell is shown together, in which Figure 6A The upper section of the second shell is shown, and Figure 6B The lower section of the second shell is shown.

[0051] Figure 7A and Figure 7B It shows along Figure 3 The cross-sectional view of the shell taken by line 7-7, in which Figure 7A The housing in its nominal condition is shown, and Figure 7B The shell is shown in a partially compressed state.

[0052] Figure 8A and Figure 8B A partial schematic diagram of the cross-section of the shell is shown, in which... Figure 8A The housing in its nominal condition is shown, and Figure 8B The shell is shown in a partially compressed state.

[0053] Figure 9 It shows Figure 7A Close-range vision Figure 9 .

[0054] Figure 10 The first position of the sliding mechanism in the first shell of the housing is shown.

[0055] Figure 11 The second position of the sliding mechanism is shown.

[0056] Figure 12 An exploded view of the sliding mechanism of the first housing is shown.

[0057] Figure 13 It shows Figure 11 Close-range vision Figure 13 .

[0058] Figure 14 It shows along Figure 10 The first shell sliding mechanism is a cross-sectional view taken by line 14-14.

[0059] Figure 15 It shows along Figure 11 A cross-sectional view of the sliding mechanism of the first shell, taken from line 15-15.

[0060] Figures 16A to 16D A simplified cross-sectional schematic diagram of the sliding mechanism is shown, in which... Figure 16A The sliding mechanism is shown fixed in the second position. Figure 16B The sliding mechanism that is released from fixation in the second position is shown. Figure 16C The sliding mechanism that is released from its fixed position in the first position is shown, and Figure 16D The sliding mechanism is shown fixed in the first position.

[0061] Figure 17 The electronic equipment accessory compartment in the second shell of the housing is shown.

[0062] Figure 18 An exploded view of the electronic equipment accessory compartment is shown.

[0063] Figure 19 and Figure 20 The fastening mechanisms for securing accessories in the electronic device accessory compartment are shown before and after fastening.

[0064] Figure 21 It shows Figure 4 The housing, wherein the retractable handle is engaged with the retractable handle spring mechanism.

[0065] Figure 22 A retractable handle is shown engaging with a spring mechanism that engages with a retractable handle portion attached to a first shell of the housing. Detailed Implementation

[0066] Reference will now be made in detail to the representative embodiments illustrated in the accompanying drawings. It should be understood that the following description is not intended to limit the embodiments to a single preferred embodiment. Rather, it is intended to cover alternatives, modifications, and equivalents that may be included within the substance and scope of the described embodiments as defined by the appended claims.

[0067] The following disclosure relates to a travel case for electronic devices. The case may be supplied with the electronic device or may be available for separate purchase. For example, consumer electronic devices may be supplied in shipping or retail packaging when delivered to a customer. This packaging may be temporary and disposable, or may not be well-suited for the customer's daily storage and transport. Once the end-user customer removes the purchased item from its packaging, they may require a case for daily storage and transport that provides portability and easy access to the electronic device and its accessories. Numerous examples of cases or bags for electronic devices are currently available. Some existing examples of cases or bags are made of ethylene vinyl acetate (EVA) to form a hard shell for protection.

[0068] Certain types of personal electronic devices may present particular challenges to housings in terms of secure and convenient storage. For example, head-mounted displays (e.g., virtual reality or augmented reality headsets) may include sensitive and expensive components, requiring housings that meet higher security and safety standards than typical housings. Furthermore, the size of head-mounted displays can be customized for individuals, meaning that the size and shape of head-mounted displays owned by two different people may vary slightly or significantly, resulting in different requirements for securing them in a housing. Head-mounted displays can also be a combination of electronic and textile components, where the more sensitive electronic parts can be heavier and require more robust protection, while the textile parts do not require as much protection.

[0069] Furthermore, the housing for personal electronic devices intended for everyday use is also an accessory for its user. It can benefit from being stylish, aesthetically pleasing, and ergonomic, while still maintaining a high level of protection and security for the head-mounted display or other device carried within. In this way, while a robust, rigid case can provide a safe and secure environment for a head-mounted display or other device, it may not be suitable for everyday use because it may be uncomfortable to transport and carry, or it may not appeal to the user due to style or other reasons.

[0070] The housings described herein provide packaging / storage solutions for head-mounted displays or other personal electronic devices, offering improved product protection and portability. In some embodiments, the travel housing for electronic devices continues to function throughout the lifespan of the device it contains. The disclosed housings serve as enclosures for storing and protecting devices and / or accessories. The housings may include more robust structural features compared to typical housings and may include protective internal surfaces particularly suited to protecting the stored device during repeated use, while also being easily adjustable to provide the same protection for devices of different sizes. The housings may also include cushioned external structures to dampen external impacts and improve the feel and overall appearance of the housing. In some embodiments, a retractable handle is provided on the housing to allow a user to carry the housing in an adjustable manner, wherein the handle automatically retracts when not in use to provide a flat appearance and prevent the handle from accidentally snagging or tangling.

[0071] As will be described in more detail below, for protection and stability, the housing is formed on the basis of a rigid shell, but the exterior of the housing is not rigid. Instead, the exterior of the housing is flexible and soft, and the user can compress the exterior of the housing when holding it. This makes the housing easier and more convenient for the user to transport and handle. To achieve this, the housing includes a layered outer structure extending over its rigid shell. The outermost layer may be formed of a thin textile such as a nonwoven material, and a wadding layer or other low-density filler layer may exist between the rigid shell and the outer layer. This layer nominally separates the outer layer from the rigid shell, but it is soft and yields towards the rigid shell when held by the user due to the compression of the wadding.

[0072] Therefore, in some embodiments, the housing may be formed of several layers including a rigid inner layer and a flexible outer cushioning layer. The rigid layer may not change its shape and protect the electronic equipment therein, while the flexible outer layer may change its shape when an external force is applied. The housing may be divided into two shells rotatably connected to each other, each shell including a rigid inner layer and a flexible outer layer. Additionally, the housing may have a retractable handle that engages with the flexible outer layer and the rigid inner layer. The retractable handle may be configured to allow a user to manually pull out the handle when needed and to automatically retract to its initial position when no external force is applied to the handle.

[0073] As will be described in more detail below, the interior of the housing includes features for adjustingly and securely holding a head-mounted display or other device in place relative to the internal cavity of the housing. For easy access by the user, it is desirable that the head-mounted display or other device be readily accessible when the user opens the housing, neither tucked into a pocket nor secured under a buckle. The housing described herein includes an open lower half from which the head-mounted display can be easily removed and used. However, when closed, the head-mounted display is securely held in its position within the internal cavity. This is achieved by a movable shield anchored to the rigid shell of the housing. When the head-mounted display is placed into the housing, its front portion nests against the internal wall, and the shield slides forward to effectively “clamp” the head-mounted display between the shield and the internal wall, thereby holding it in place by restricting its movement (along with the upper half of the housing when closed) without applying excessive pressure.

[0074] Because the shield slides forward to meet the head-mounted display, this also allows the housing to accommodate different sizes of head-mounted displays. For example, the head-mounted display can be designed to accommodate different sizes and shapes of light seals (the part that rests against the user's head and blocks external light) based on the size and shape of the user's face / head. When sliding forward to secure the head-mounted display, the shield stops once it is firmly in contact with the light shield, regardless of the size or shape of the light shield. This allows for securing a wide range of sizes and eliminates the need for customers to select the correct size of the housing based on their specific head-mounted display or other device. This adjustability also provides greater reusability and thus a longer lifespan for the housing.

[0075] As will be described in more detail below, in some embodiments, the internal material of the shell can be molded foam covered with fabric. Due to the difference in materials, concealing the transition from molded foam to a more rigid shell beneath the fabric can be challenging. Some embodiments described below achieve this by molding the rigid edge edges together with the softer body to cover the material joints between the molded portions with fabric, while simultaneously creating a smooth surface throughout the shell, particularly the inner surface. Therefore, the user can see a flat and smooth surface of the shell. The edge edges also enhance the rigidity at the point where the two halves of the shell meet.

[0076] In some embodiments, the housing may also include features that allow for the adaptation of accessories such as chargers. Such features may be located on one side of the housing, while features for securing the main device (e.g., a head-mounted display) may be located on the other side. The features for adapting accessories may have a strap portion and a locking portion for adjustablely securing the charger. The accessory may be a battery (e.g., an auxiliary battery for a head-mounted display).

[0077] These and other embodiments are discussed below with reference to the accompanying drawings. However, those skilled in the art will readily understand that the detailed descriptions given herein with respect to these drawings are for illustrative purposes only and should not be construed as limiting.

[0078] Figure 1 and Figure 2 Open views of the housing 10 with and without the electronic device 2 and its accessory 3 are shown respectively. As described herein, a housing suitable for storing and securing a head-mounted display is shown, but it should be understood that the concepts and structures discussed are not limited to head-mounted displays only, but can be applied to housings of other articles (e.g., other personal electronic devices).

[0079] As shown in the figure, the housing 10 includes a first shell 20 and a second shell 30 configured to open and close. The first shell 20 and the second shell 30 are hinged together at their edges, and when closed together, they together with the bottom wall and side walls of the housing 10 form a closed internal storage cavity. Figure 1 and Figure 2 An example is shown of a first housing 20 and a second housing 30 (and thus housing 10) in an open configuration. In this configuration, the internal storage cavities are accessible to the user. Each housing includes a compartmentalized space for receiving and securing electronic equipment and its accessories. Figure 1 A head-mounted display 2 fitted in the first housing 20 and a battery fitted in the second housing 30 are shown as examples.

[0080] In some embodiments, the first housing 20 includes a sliding mechanism 200 comprising a cover 202, a slider 204, and a slider handle 206. The slider handle 206 can be fixed or dismounted, such that when dismounted, the cover 202 can be configured to slide along the slider 204 by manually pulling the slider handle 206 to adjust space for an electronic device (e.g., a head-mounted display). In some embodiments, the second housing 30 includes an electronic device accessory stop 302 and an electronic device accessory recess or strap 304. The strap 304 can be adjusted to secure an electronic device accessory, such as a battery 3.

[0081] While some embodiments discussed herein may have features particularly suited for storing and protecting head-mounted displays and accessories, it should be understood that the housings and features described herein are applicable to storing and protecting other devices (e.g., other personal electronic devices), such as headphones, PDAs (personal digital assistants), mobile phones, digital cameras, tablet PCs, smartwatches, handheld game consoles, etc. Electronic device accessories are not limited to batteries, but may include handsets, earpieces, any type of cable, straps (e.g., smart watch straps), etc.

[0082] The housing 10 may also include a zipper pull 306 on the second housing 30 as part of a zipper-type closure configuration. For example, the first tooth 208 on the edge of the first housing 20 and the second tooth 308 formed on the edge of the second housing 30 can be engaged together or separated from each other using the zipper pull 306. Thus, by rotating the first housing 20 and the second housing 30 relative to each other about their hinge connection, the housings 20 and 30 can be opened, as... Figure 1 and Figure 2 As shown, and can be closed, as Figure 3 and Figure 4 As shown.

[0083] Go to Figure 3 and Figure 4 The figure shows a perspective view of the housing 10 in a closed state. As shown, the first tooth 208 and the second tooth 308 can be engaged by the zipper pull 306 to achieve a tight closure of the housing 10. Figure 3 and Figure 4 The closed view shows the outer sheath 40 forming the entire outer portion of the housing 10. More specifically, the sheath 40 is disposed on each of the first housing 20 and the second housing 30, wherein the first tooth 208 and the second tooth 308 are along the edge of each housing.

[0084] The sheath 40 can form a soft, yielding outer surface of the housing 10. For example, the outer material of the sheath 40 can be a flexible textile, and it can be lined underneath with a soft, yielding material (e.g., wadding, feathers, etc.). This soft exterior contributes to the friendly and soft appearance and feel of the housing 10, which determines the strength and protection provided by the housing.

[0085] In addition to providing a soft and friendly look and feel to the housing 10, the sheath 40, formed of a flexible and compressible material, allows the housing to absorb and dampen external shocks or vibrations. Therefore, the outermost surface of the housing 10 can variably change its surface shape as it absorbs shocks during transport or when held by a user, for example, as... Figure 7B As shown. That is, the thickness of the housing 10 can vary in the area where force is applied by the user while the user is holding it. In addition, each housing, namely the first housing 20 and the second housing 30, can independently appear to be thicker or thinner than each other.

[0086] In some embodiments, the sheath 40 may further include a hinge 404 that integrally connects the outer sheath 40 of the respective first shell 20 and second shell 30. The hinge 404 and the outer sheath 40 may be formed of the same material. In some embodiments, the sheath 40 and hinge 404 may be connected by stitching (e.g., stitching 408) to form a continuous appearance. That is, the housing 10 may appear as a single, monolithic sheath 40 covering the entire outer surface of the housing 10. In particular, where the housing 10 comprises asymmetrical first shells 20 and second shells 30, sheaths of different shapes and forms may be connected to each other.

[0087] In some embodiments, a retractable strip or handle 402 may be present on the first housing 20 side of the sheath 40. As will be described in further detail, the retractable handle or strip 402 can be manually pulled out to the extended position. Figure 4 ), and automatically retracts to its original or nominal position via a spring mechanism without any applied force. Figure 3 One end of the handle 402 can be connected to the housing 10 below the hinge 404 via a first opening or pocket 406. On the opposite side of the hinge 404, a second pocket 416 may be integrally formed on the sheath 40 to receive the other end of the retractable handle 402. When in the extended position, a portion of the retractable handle 402 may extend from the pockets 406, 416 to allow the retractable handle 402 to extend. On the other hand, when in the nominal position, a portion of the retractable handle 402 may retract into the pockets 406, 416 to allow the retractable handle 402 to move back. Additionally, the pockets 406, 416 may be located on the first housing 20 or the second housing 30.

[0088] Figure 5A and Figure 5BAn exploded view of the first shell 20 is shown together. Specifically, Figure 5A The upper section of the first shell 20 is shown, and Figure 5B The lower portion of the first shell 20 is shown. In some embodiments, the first shell 20 may include: a rigid layer 210 having a concave inner surface and a convex outer surface; a foam layer 220 disposed on and covering the outer surface of the rigid layer 210; flocculent material 250 disposed on and covering the foam layer 220; and a sheath layer 230 disposed on and covering the outer surface of the foam layer 220.

[0089] Figure 6A and Figure 6B An exploded view of a second shell 30, including a similar structure, is also shown. Specifically, Figure 6A The upper section of the second shell 30 is shown, and Figure 6B The lower portion of the second shell 30 is shown. In some embodiments, the second shell 30 may include: a rigid layer 310 having a concave inner surface and a convex outer surface; a foam layer 320 disposed on and covering the outer surface of the rigid layer 310; flocculent material 350 disposed on and covering the foam layer 320; and a sheath layer 330 disposed on and covering the outer surface of the foam layer 320. The layered structure of the second shell 30 is the same as that of the first shell 20, therefore the characteristics described with respect to one or the other apply to both.

[0090] In some embodiments, the sheath layer 230 may correspond to the outer sheath 40 described above. That is, the sheath layer 230 may be a flexible textile and may be lined underneath with a cushioning wadding 250. This soft exterior contributes to an approachable and soft appearance while providing enhanced protection. The wadding 250 may be supported and enclosed between the sheath layer 230 and an inner fabric, which may be, for example, an inner fabric included in a down sheath having wadding / feathers. In some embodiments, the sheath layer 230 may be made of nylon or polyester fabric.

[0091] In some embodiments, the rigid layer 210 may be thermoformed polycarbonate, and the foam layer 220 may be formed of polyurethane. The foam layer 220 is a resilient, flexible, and durable man-made material, while the rigid layer 210 is a tough, rigid, and ductile material with high strength, stiffness, and impact resistance. The foam layer 220 is attached to and conforms to the rigid layer 210, thus giving the foam layer 220 rigidity. This helps to give the foam layer 220 sufficient structure and resistance to absorb external impacts, while the rigid layer 210 protects the entire shell 20 from internal deformation. For example, molded foam 240 disposed on the inner side of the rigid layer 210 can maintain its shape while being held by a user.

[0092] In addition, refer to Figure 7A The figure shows the section taken along line 7-7. Figure 3 A cross-sectional view of the shell 10 is shown, thus illustrating the stacked layers of each shell. The wadding 250 may include one or more wadding layers 211, 213, 215. Each shell may also include a fabric layer 232 (e.g., a nonwoven fabric layer) disposed on the foam layer 220, such that the wadding layer 215 is disposed on the fabric layer 232, and wadding layers 213, 211 are disposed on wadding layers 215, 213, respectively. The wadding layers 211, 213, 215 are compressible, and the sheath layer 230 is flexible, such that the outermost surface of the shell 20 yields even under low external pressure and thus does not maintain a fixed shape while held by a user, as also described above. The wadding or stuffing 250 may be made of polyester, wool, and cotton fibers, commonly used in down jackets to provide a similar compressible loft effect. Others are made of silk fibers, cotton-wool blends, cotton-polyester blends, organic blends, bamboo wadding, and recycled fibers.

[0093] For example, Figure 7A A cross-sectional view of the housing 10 in its nominal state is shown, wherein no external force is applied, and Figure 7B It shows the state of compression. Figure 7A The housing 10. When one or more external forces are applied as indicated by the arrows, only the area where the force is applied can be compressed, while the unaffected areas on the outer surface of the housing 10 retain their original shape.

[0094] In some embodiments, the wadding layers 211, 213, and 215 together may have a nominal thickness that increases in the middle toward the outer surface of the shell 20. Each wadding layer may be of the same type or weight (e.g., 40 to 80 grams of wadding). In some embodiments, 60 grams of wadding may be used for each layer 211, 213, and 215. Changing the wadding weight adjusts the thickness of the wadding, which will further change the cushioning of the outer layer of the shell 10. For example, 80 grams of wadding will be thicker than 60 grams of wadding and thus provide more cushioning. The wadding will have natural resilience and will expand again after compression, such that when not subjected to external pressure, the wadding will maintain a distance between the sheath layer 230 and the foam layer 220. For example, the wadding layers 211, 213, and 215 may be configured to space the outer sheath layer 230 from the foam layer 220 at a distance of at least, for example, 1 / 4 inch at their maximum value (e.g., midpoint 233).

[0095] Re-reference Figure 7A and Figure 7B In some embodiments, each layer is disposed or attached tightly to one another. Additionally, the shape of the inner surface of the molded foam 240 may not conform to the shape of the inner surface of the rigid layer 210. This shape may include a pair of recesses 241, 243 (see, for example, see...). Figure 2 The pair of recesses are located at the front ends 21, 31 of at least one of the first shell 20 and the second shell 30, away from the retractable handle 402. Furthermore, an edge edge 260 may be present at the edge of the molded foam 240, at the top of the molded foam 240. In some embodiments, the edge edge 260 may be made of a material more rigid than the molded foam 240. Therefore, the edge edge 260 can provide additional strength and rigidity to the molded foam 240. For example, when the shell 10 is closed such that the edges of the shells 20, 30 are as... Figure 7A When in contact with each other, the edge 260 of the first shell 20 and the edge 360 ​​of the second shell 30 can reduce the transfer of load to the molded foams 240, 340, at least in part because the edge edges 240, 360 cooperate with each other and engage with the rigid layers 210, 310 to isolate and absorb external forces without significant internal deflection.

[0096] Go to Figure 8A and Figure 8B ,in Figure 8A A schematic cross-sectional view of a portion of the first shell 20 or the second shell 30 is shown. For convenience, the elements shown in the schematic diagram are labeled as elements of the second shell 30; however, it should be understood that the described structure and function also apply to the first shell 20. As shown, when... Figure 8BAs indicated by the arrows, when an external load is applied to the housing 10, the outer sheath layer 330 covering the fuzzy layers 311, 313, and 315 can deform in the direction of the load, while the rigid inner shell, including the rigid layer 310, maintains its shape, thereby protecting the softer inner molded foam layer 340 from deformation. Additionally, depending on the amount of load, the fabric layer 332 covering the fuzzy layers 311, 313, and 315 and the foam layer 320 covering the fabric layer 331 may deform slightly or remain unchanged. In any case, the molded foam 340 forming the internal cavity of the housing 10, disposed beneath the rigid layer 310, is protected from the effects of the external load, thereby protecting the product inside the housing 10. Figure 8A and Figure 8B The load applied to the second shell 30 is illustrated as an example; when a load is applied to the second shell 20, the second shell can deform in a similar manner.

[0097] refer to Figure 9 The figure shows Figure 7A Close-range vision Figure 9 Edge 260 (or edge 360) may be provided along the entire edge of molded foam 240 (or molded foam 340). For example, in the illustrated embodiment, edge 260 is a candy cane shape with an outer side 262 longer than the inner side 264, and the inner and outer sides meet at a semi-circular bend at the top. In some embodiments, edge 260 and molded foam 240 may be pressed together to form a single integral body. For example, during the molding process, when molding foam 240 is being molded, pre-formed edge 260 may be in the molding machine along with the material used for molding foam 240. In this way, edge 260 can become part of the molded foam 240 as a single integral body and provide rigidity around the entire edge of molded foam 240. The shape of the edge 260 (or edge 360) shown in the illustrated example helps to establish and maintain a tight and smooth edge between the edge 260 and the different materials of the molded foam 240. As will be discussed, seams at these joined edges will be covered by the inner fabric 270, but defects or significant separations at the seams may still be visible through the fabric, which can be unsightly and undesirable. The candy cane shape of the edge 260 allows the molded foam 240 to gradually thin upward toward the upper edge where the foam joins with the edge 260, which the inventors have found reduces the tendency for the foam 240 to pull away from the edge 260 or otherwise form noticeable seams. Other shapes that can accommodate or facilitate a similar taper in thickness of the molded foam 240 toward the interface between the foam and the edge 260, such as, for example, a downward taper or a solid edge that tapers downward and outward, can also be used, allowing the space for the molded foam to taper upward accordingly without revealing bulges or seams relative to the surface of the edge 260.

[0098] In some embodiments, the inner fabric 270 may cover the inner surface of the molded foam 240 and the outer surface (e.g., outer side 262) of the edge edge 260. The edge edge 260 not only enhances the strength and rigidity of the molded foam 240 but also, due to its specific shape, further allows the inner fabric 270 to smoothly cover the molded foam 240, as mentioned above. That is, when covered by the inner fabric 270, no wrinkles or fabric folds are produced on the surface of the molded foam 240, even at the joint where the edge edge 260 meets the molded foam 240. When dissimilar materials are joined or molded together (e.g., edge edge 260 and molded foam 240), in some cases, this can lead to visible separation at the joint when covered by fabric, as one material may shrink during or after the molding process. The edge edge 260 and molded foam 240 of the embodiments, having the specific shape described above, mitigate these undesirable problems. More specifically, refer to... Figure 9 The thickness 242 of the molded foam 240 is thinner than the total thickness 244 of the molded foam 240. For example, the thickness 242 may be between 2 mm and 3 mm, while the thickness 244 may be between 3.5 mm and 5.5 mm. In one embodiment, the thickness 242 may be 2.6 mm. The relationship between these two thicknesses may affect the final molded surface.

[0099] In some embodiments, the inner fabric 270 may be disposed in the molding machine together with the edge 260 and the material for the molding foam 240. Thus, the molding foam 240, the edge 260, and the inner fabric 270 are molded together as a single integral body during the molding process. Furthermore, as noted above, the second shell 30 includes layers similar to those of the first shell 20, including the edge 360.

[0100] Re-reference Figure 1 Each housing 10 is configured to receive a product such as a head-mounted display (or other personal electronic device) and its accessories. In this example, the first housing 20 may receive and store, for example, a head-mounted display 2, and the second housing 30 may receive a battery 3. Additionally, each housing may have an adjustable mechanism to adjust the receiving space and secure the product head-mounted display 2 within it. Figures 10 to 15 An example is illustrated by a first housing 20 having an adjustable mechanism for receiving personal electronic devices (e.g., head-mounted displays 2). That is, the first housing 20 has a mechanism configured to be adjustable to receive electronic devices of different sizes.

[0101] Figure 10 The first position of the adjustable mechanism or sliding mechanism 200 of the first housing 20 is shown, and Figure 11The second position of the slider mechanism 200 is shown. For the sake of convenience, the slider mechanism 200 on the first housing 20 of the housing 10 is shown in [the diagram]. Figure 10 and Figure 11 The second housing 30 is not shown. In the second position, the shield 202 and the slider handle 206 move to the right relative to the first position to adjust the product receiving space 245 between the front end 21 of the housing 20 and the shield 202. In some embodiments, the molded foam 240 may form a concave boundary of the product receiving space 245, and the shield 202 may form a convex boundary of the product receiving space 245. The user can pull the slider handle 206 to the right or left based on the size of the electronic device to adjust the position of the shield 202. Furthermore, when the electronic device is inserted into the product receiving space 245, the user can pull the slider handle 206 to provide sufficient space and slide it backward to secure the device. For example, personal electronic devices such as head-mounted displays may have modular faceplates (e.g., light seals or other facial interface portions of different sizes) that are supplied with the head-mounted display, allowing the user to select a faceplate with the correct face fit for their individual use. In addition, the sliding mechanism 200 can be adapted to different types of electronic devices by adjusting the receiving space 245.

[0102] Go to Figure 12 An exploded view is shown, illustrating that the sliding mechanism 200 includes a first attachment mechanism 216 fixed to a rigid layer 210 of the first housing 20. Similar to... Figure 10 and Figure 11 For illustrative purposes, Figure 12 Focusing on the sliding mechanism disposed on the first housing 20, the second housing 30 is not shown. Additionally, for convenience, other layers of the first housing 20, such as the outer sheath or sheath layer 230 and the wadding 250 independent of the sliding mechanism 200, and the molded foam 240 disposed on the rigid layer 210, are omitted from this figure. Around the first mounting mechanism 216, a sliding base 218 with a ring shape is disposed. For example, the sliding base 218 may be riveted to the rigid layer 210 to serve as an anchor point or mechanical foundation for the sliding mechanism 200. The sliding base 218 may have an opening 217 through which the slider 204 can engage, and a sliding track 219 may be formed along the side of the closed shape. The slider 204 may include: a lower slider portion 201, which is partially disposed below the sliding base 218 and within the sliding track 219; and an upper slider portion 203, which extends from the lower slider portion 201 and is exposed through the opening 217.

[0103] In some embodiments, the slider 204 may be movably coupled to the sliding base 218 and constrained to translate linearly by sliding a portion therein within the sliding track 219. Thus, when the sliding base 218 is fixed to the rigid layer 210, the slider 204, the slider handle 206, and the guard 202 move linearly, and the constraint on the movement of the slider 204 constrains the movement of the guard 202. For example, the linear displacement of the slider 204 may be constrained by the movement of the upper portion 203 of the slider within the opening 217. That is, the slider handle 206 may be fixed at any of a plurality of positions relative to the sliding base 218, such that the guard 202 may similarly remain in place at any of a plurality of positions relative to the sliding base 218. Furthermore, the guard 202 may be movably coupled to the sliding base 218 by its fixed connection to the slider 204, and the slider handle 206 may be fixed to the slider 204. In some embodiments, the shield 202 may extend laterally toward the sidewall 235 of the housing 10, and the lateral extension of the shield 202 may be spaced apart from the sidewall 235. In some embodiments, the shield 202 may be able to be temporarily and repeatedly fixed at any of a plurality of locations relative to a mechanical foundation (e.g., a sliding base 218). Thus, when fixed relative to the mechanical foundation, the shield 202 does not move laterally relative to the mechanical foundation, and when not fixed in this way, the shield 202 may move laterally relative to the mechanical foundation.

[0104] The slider mechanism 200 may further include a second attachment mechanism 222 disposed on the underside of the slider handle 206 and facing the first attachment mechanism 216. The first attachment mechanism 216 and the second attachment mechanism 222 are configured to be removably secured to each other when they meet and to be disassembled by pulling the slider handle 206 upwards. In some embodiments, the first attachment mechanism 216 and the second attachment mechanism 222 may be hook-and-loop fasteners, for example, the first attachment mechanism 216 is a hook and the second attachment mechanism 222 is a ring, or vice versa. When the second attachment mechanism 222 is engaged with the first attachment mechanism 216, the slider handle 206 may be in a fixed position. On the other hand, when the second attachment mechanism 222 is not engaged with the first attachment mechanism 216, the slider handle 206 may be in a disengaged position (e.g., no linear movement).

[0105] In some embodiments, the first attachment mechanism 216 has a larger surface area than the second attachment mechanism 222. Therefore, when the user pulls the slider handle 206 from the first position to the second position (while the first attachment mechanism 216 and the second attachment mechanism 222 separate from each other), as... Figure 10 and Figure 11 or Figure 14 and Figure 15As shown, the second attachment mechanism 222, which moves together with the slider handle 206, can be fastened to a corresponding position on the first attachment mechanism 216.

[0106] refer to Figure 13 When the first attachment mechanism 216 is fixed to the rigid layer 210, the user can pull upwards the tab (e.g., the slider handle 206) to which the second attachment mechanism 222 is attached, thereby disengaging the second attachment mechanism 222 from the first attachment mechanism 216, releasing the slider 204 to slide forward or backward, and then reattaching it, securing the slider 204 in place relative to the first attachment mechanism 216 (and the rigid layer 210). Because the second attachment mechanism 222 needs to be disengaged and reattached at different locations on the first attachment mechanism 216, the second attachment mechanism 222 has a smaller surface area than the first attachment mechanism 216 to allow attachment to any part of the second attachment mechanism 222 within the constraints of the possible forward and backward range of motion within the sliding base 218.

[0107] In some embodiments, the slider handle 206 may also be provided with a first stop 224 and a second stop 226, each made of a rigid material. The stop 224 may be enclosed within the slider handle 206, located directly above but separate from the second attachment mechanism 222. The surface area of ​​the first stop 224 may correspond to the surface area of ​​the second attachment mechanism 222. The second stop 226 may be positioned adjacent to and abutting the first stop 224 toward the front end of the housing 20. By supporting the slider handle 206 with two rigid stops and inhibiting bending of the slider handle, this configuration allows the slider handle 206 to buckle when the second attachment mechanism 222 is attached to the first attachment mechanism 216.

[0108] In some embodiments, the second stop 226 may be coupled to the cover 202. For example, the second stop 226 may be provided with a fastening mechanism 225, such as a screw, which passes through a hole 227 formed in the slider handle 206 facing the front end of the housing 20 and is fastened to a corresponding receiving portion 229, such as a threaded hole, formed in the middle of the bottom of the cover 202. The middle portion of the bottom of the cover 202 may fit into a groove 231 formed in the cover retaining portion 205 of the slider 204. In some embodiments, the cover retaining portion 205 protrudes upward from the upper portion 203 of the slider and forms a groove 231 through which the cover 202 may be coupled to the slider 204 and the slider handle 206 via the second stop 226. Additionally, the shield 202 may be connected to the sliding base at the center of the sliding base 218, and may have side wings 234, 236 extending laterally over and beyond the sliding base 218 (see, for example, see...). Figure 10 and Figure 11 ).

[0109] As described above, the stop block 224 may have a surface area corresponding to the second attachment mechanism 222 (see [reference]). Figure 13 Each of these stops is connected to the slider handle 206. The first stop 224 and the second stop 226 support each other, while the second stop 226 is fixedly attached to the slider 204. This configuration allows the slider handle 206 to move between a first position and a second position, or any position between the first and second positions, and prevents further movement of the slider 204 without buckling of the slider handle 206. When the slider handle 206 is set to the desired position, the load applied to the guard 202 or the slider 204 is not transmitted (or reduced) to the slider handle 206 and the attachment mechanisms 216, 222, due to the mutual support or action of the two stops 224, 226, or via action and reaction forces. In other words, the stops 224 and 226 can move with the slider 204 according to the slider handle 206 (when unrestrained), and when the user fixes the slider position by engaging the first attachment mechanism 216 and the second attachment mechanism 222 (when restrained), the stops 224 and 226 can prevent the slider 204 from moving and further prevent the slider handle 206 from buckling, folding, and peeling. Therefore, when the two attachment mechanisms 216 and 222 are engaged, the movement of the cover 202 can be fixed.

[0110] Stops 224 and 226 provide robust connection interfaces for the structure of the slider mechanism 200. As described above, the shield 202 can be oriented in an upright configuration and has laterally extending side wings 234 and 236. Furthermore, the shield 202 can be relatively thin, thus potentially deformable when an external force is applied to it. Therefore, the shield 202 readily receives external forces and torques at its edges and base, or both. Therefore, it is important to provide a robust connection and structure between the shield 202 and the slider 204 that is low-profile (because space within the housing is very valuable) but has sufficient cantilever to increase the rigidity of the shield. Furthermore, the slider mechanism 200 described herein allows the user to conveniently and intuitively change the position of the shield 202 to adjust the product receiving space 245, and further allows the user to conveniently release the shield 202 from a fixed position.

[0111] Due to the above configuration, when the external force transmitted from the head-mounted display 2 against the cover 202 is transferred to the bottom of the cover 202, a cantilever effect is achieved, which is rigidly connected to the second stop 226 and the slider 204. The second stop 226 can also press against the first stop 224, and the first stop is fixed in place when the first attachment mechanism 216 and the second attachment mechanism 222 are connected to each other. Therefore, the external force of the head-mounted display 2 against the cover 202 is subjected to equal and opposite forces, thereby preventing the cover from moving and thus rigidly holding the cover in the proper position.

[0112] Figure 14 and Figure 15 Examples are shown of a first face-fitting component 22 assembled to a head-mounted display 2 fixed in a first position and a second face-fitting component 24 assembled to a head-mounted display 2 fixed in a second position. With the configuration and arrangement of the housing 10 described herein, head-mounted display devices with modular and differently sized parts (e.g., light seals or other face-fitting interfaces of different sizes) can be secured, thereby allowing a single housing to effectively support a wide variety of assembled devices of different sizes, thus improving user satisfaction and reducing the complexity of manufacturing and stocking housings.

[0113] In some implementation schemes, refer to Figures 10 to 15 The slider mechanism 200 also includes a decorative ring 228 configured to fix and seal the slider 204. The decorative ring 228 may be part of the sliding base 218, together they fix the slider mechanism 200 (specifically the slider 204) to the rigid layer 210.

[0114] Figures 16A to 16D A simplified schematic diagram of the slider mechanism 200 is shown to further illustrate the motion and control of the slider mechanism. Therefore, for clarity, some components of the housing 20, such as the rigid layer 210, foam layer 220, flocculent material 250, sheath layer 230, etc., are omitted. [Go to...] Figure 16A In the case of, for example, a relatively large head-mounted display 2, the shield 202 is shifted further away from the front end 21, so that the shield 202 is in a second position (further away from the front end 21), similar to Figure 11 and Figure 15 The location shown. Figure 16A The sliding mechanism 200 is fixed to the sliding base 218, which serves as the mechanical foundation. The first stop 224 and the second stop 226 are adjacent to each other to act on external loads (e.g., action and reaction forces, as described above) applied to the shield 202.

[0115] Figure 16BThe diagram shows the slider mechanism 200 unattached / unattached when the slider handle 206 is lifted upwards and toward the front end 21. The user can simply lift the handle 206 to release the first attachment mechanism 216 and the second attachment mechanism 222. The first attachment mechanism 216 is secured to a mechanical foundation via a slider base 218, and the second attachment mechanism 222 is secured to the slider handle 206. Furthermore, as described above, the surface area (or length in the direction of travel) of the first attachment mechanism 216 may be greater than the surface area of ​​the second attachment mechanism 222. Specifically, in the sliding direction, the length of the first mechanism 216 may be greater than the length of the second mechanism 222. Therefore, reference will be made below... Figure 16D As described, the second attachment mechanism 222 is slidable and attaches to the first attachment mechanism 216 at any point within its length. When the slider handle 206 is released, it can be manipulated to slide the cover 202 relative to the slider base 218. For example, the slider handle 206 can be released by pulling it in a direction away from the slider base 218 and the first housing 20. Here, when the first stop 224 is lifted upwards along with the handle 206 while the second stop 226 remains in its position, the two stops 224, 226 are no longer in contact. Therefore, an external force applied to the slider handle 206 or the cover 202 can cause the cover 202 to slide in the direction of the applied force.

[0116] Figure 16C The schematic diagram illustrates that the sliding mechanism 200 can be manipulated such that the shield 202 moves toward the front end 21 to a first position (closer to the front end 21), similar to... Figure 10 and Figure 14 The location shown. In Figure 16A and Figure 16C Between these events, the distance D between the shield 202 and the front end 21 changes; for example, as the position of the shield 202 changes, in... Figure 16C In the middle, the distance D between the shield 202 and the front end 21 decreases. As indicated by the two arrows pointing in opposite directions, the shield 202 can slide in the opposite direction to adjust the distance D and thus adjust the receiving space 245.

[0117] Go to Figure 16D The sliding mechanism 200 is in the first position, wherein the sliding handle 206 and the guard 202 are secured by the two attachment mechanisms 216, 222 described above. Again, two stops 224, 226 are arranged adjacent to each other to keep the sliding handle 206 and the guard 202 from moving. The second stop 226 serves as a support for the cantilever effect of the guard 202. (See reference...) Figures 16A to 16DAs described, the sliding mechanism 200 allows the user to conveniently adjust the receiving space 245 according to, for example, the size of the user face fit piece for a head-mounted display, by opening the receiving space 245 to provide sufficient space for the user device and closing it to securely fix the user device.

[0118] Figures 16A to 16D Two positions are shown as examples; however, the user can manipulate the slider handle 106 to fix any of the multiple positions within the first and second positions. Thus, the shield 202 can similarly be held in place relative to the sliding base 218 at any of the multiple positions to adjust the receiving space 245. Each of the multiple positions in which the shield 202 can be held can define a different distance between the shield 202 and the front end 21 of the first housing 20, thereby defining different dimensions of the product receiving space 245.

[0119] Go to Figures 17 to 20 The second housing 30 of housing 10 may include a securing mechanism 300 for electronic device accessories. For ease of description, the first housing 20 is omitted here. In some embodiments, the second housing 30 forms an electronic device accessory compartment, similar to how the first housing 20 forms a compartment for a personal electronic device. The securing mechanism 300 includes a securing base 318 riveted to a rigid layer 310 of the second housing 30 by a pair of mechanical sliders 328, similar to the sliding base 218 of slider mechanism 200 riveted to the rigid layer 210 as a mechanical foundation. A pair of receiving rings 338 may pass through the pair of mechanical sliders 328 and engage with corresponding holes formed in the securing base 318. An end of a strip 324 may then pass through the receiving rings 338 and engage. In some embodiments, the strip 324 and the mechanical sliders 328 have a female and male snap-fit ​​system, such that the ends of the strip 324 extending through the receiving rings 338 can be snap-fitted into the mechanical sliders 328 respectively. Additionally, the strip 324 may have a first attachment mechanism 316 and a second attachment mechanism 322, such as a hook-and-loop material, to secure accessories, such as battery 3. Figure 20 As shown.

[0120] The securing mechanism 300 may also include an electronic device accessory stop 302 to secure an accessory (e.g., battery 3) and hold it in place. (See reference) Figure 19 and Figure 20 The stop 302 may also include a recess 312 to allow wires or cables of the battery 3 to pass through.

[0121] Figure 21 and Figure 22 Left perspective views of housing 10 and first housing 20 are shown respectively. For illustrative purposes only, [the figures are shown in the original text]. Figure 22 The descriptions of the sheath layer 230, molded foam 240, and wadding 250 are omitted in the text.

[0122] In some embodiments, one end 414 of the retractable handle 402 may engage below a hinge 404 of the outer sheath 40. That is, a first pocket or passageway 406 may be defined below the hinge 404, with one end 414 extending through the first pocket or passageway to engage a sliding mechanism comprising a sliding rail 418 fixed (e.g., riveted) to a rigid layer 210 (or 310) and a sliding rod 428 sliding on the sliding rail 418. (Reference) Figure 5B As described above, the retractable handle 402 can engage with the sheath layer 230 and extend into the inner side of the sheath layer 230. For example, the sheath layer may have an opening or slit 412 through which the retractable handle 402 extends to traverse from the outer sheath layer 230 to the inner sheath layer 230. In use, a portion of the retractable handle 402 may partially extend from the slit 412 when converted to an extended configuration, and this portion may retract into the slit 412 when converted back to a retractable configuration. Thus, the handle 402 can extend into the sheath layer 230, and one end 414 of the handle 402 can be retained within the sheath layer 230 and further extend to engage with the rigid layer 210, such as... Figure 22 As shown.

[0123] In some embodiments, one end 414 may have an opening 424 to hook onto a sliding rod 428, such that when the user pulls out the retractable handle 402, the sliding rod 428 moves along a sliding track 418. In some embodiments, the sliding mechanism for the retractable handle 402 has a spring mechanism. For example, the sliding rod 428 may be a spring connected to the sliding track 418, such that when the retractable handle 402 is pulled out (e.g., ...), Figure 22 The spring mechanism unfolds from the compressed state, allowing the retractable handle 402 to be pulled out. Once the user releases the handle 402, the spring mechanism pulls the retractable handle 402, which is connected to the sliding rod 428, back to its initial state (e.g., Figure 21 ).

[0124] The housing 10 according to the various embodiments described herein has various features that allow users to comfortably and conveniently use their personal electronic devices while securely storing them.

[0125] Each of the components and their constituent parts, as well as other variations described herein, may include corresponding features described with reference to each of the other components, and features described without limitation.

[0126] For illustrative purposes, the foregoing description uses specific names to provide a thorough understanding of the described embodiments. However, it will be apparent to those skilled in the art that specific details are not required to practice the described embodiments. Therefore, for illustrative and descriptive purposes, the foregoing description of specific embodiments described herein is presented. They are not intended to be exhaustive or to limit the embodiments to the precise forms disclosed. It will be apparent to those skilled in the art that many modifications and variations are possible in light of the teachings above.

[0127] As is widely recognized, the use of personally identifiable information should comply with privacy policies and measures that are generally accepted to meet or exceed industry or governmental requirements for protecting user privacy. Specifically, personally identifiable information data should be managed and processed to minimize the risk of unintentional or unauthorized access or use, and the nature of authorized use should be clearly explained to users.

Claims

1. A housing for storing and carrying a personal electronic device, the housing comprising: A first shell and a second shell, which form an internal cavity when closed together; A sliding mechanism, connected to the first housing, includes: A sliding base, the sliding base being fixed to the rigid layer of the first shell; A protective cover, movably connected to the sliding base, the protective cover extending away from the sliding base within the first housing and configured to translate linearly relative to the sliding base, wherein the protective cover adjustably defines a product receiving space between the protective cover and a front portion of the first housing; and The sliding handle is operable by a user to fix or de-fix it relative to the sliding base. When the sliding handle is fixed, the cover remains in place relative to the sliding base. When the sliding handle is de-fixed, the sliding handle is operable by the user to slide the cover relative to the sliding base.

2. The housing according to claim 1, wherein the sliding handle can be fixed at any of a plurality of positions relative to the sliding base, such that the cover can similarly remain in place relative to the sliding base at any of a plurality of positions.

3. The housing of claim 2, wherein the shield can be held in each of the plurality of positions defining a different distance between the shield and the front portion of the first housing, thereby defining different dimensions of the product receiving space.

4. The housing according to claim 1, wherein the shield is connected to the sliding base at the center of the shield, and wherein the side wings of the shield extend laterally over and beyond the sliding base.

5. The housing according to claim 1, wherein the protective cover is spaced apart from the sidewall of the first housing.

6. The housing of claim 1, wherein the sliding mechanism further comprises a slider movably coupled to the sliding base and configured to translate linearly along a sliding track of the sliding base, wherein the cover is fixed to the slider, and wherein the cover is movably connected to the sliding base by means of its fixed connection to the slider.

7. The housing according to claim 6, wherein the slider handle is fixed to the slider.

8. The housing according to claim 1, wherein the sliding mechanism further comprises a first attachment mechanism, the first attachment mechanism being fixedly positioned relative to the first housing. The sliding handle includes a second attachment mechanism fixed thereto, the second attachment mechanism being removably coupled to the first attachment mechanism, and When the second attachment mechanism is connected to the first attachment mechanism, the sliding handle is in a fixed position, and when the second attachment mechanism is not connected to the first attachment mechanism, the sliding handle is in a released position.

9. The housing according to claim 8, wherein the first attachment mechanism and the second attachment mechanism are hook and loop fasteners.

10. The housing according to claim 1, wherein when fixed, the sliding handle can be released by pulling the sliding handle in a direction away from the sliding base and the first housing, and wherein when fixed, the sliding handle is not released by a force applied in the translational direction of the cover.

11. The housing of claim 1, wherein each of the first housing and the second housing comprises a rigid layer and a molded foam layer, the molded foam layer being disposed on and covering the inner surface of the rigid layer, and The molded foam layer is covered by an inner fabric.

12. The housing of claim 1, wherein the front portion of the first housing is internally formed of molded foam such that the front portion of the first housing defines the product receiving space between the shield and the molded foam.

13. The housing of claim 12, wherein the molded foam forms a concave boundary of the product receiving space, and wherein the shield forms a convex boundary of the product receiving space.

14. The housing of claim 1, wherein the housing further comprises a fixing mechanism configured to fix an electronic device accessory and coupled to the second housing, the fixing mechanism comprising: A fixed base, the fixed base being fixed to a rigid layer of the second shell; The strip is engaged with the fixed base; and An electronic device accessory stop for holding the electronic device accessory in place.

15. A product holding system for storing personal electronic devices, the product holding system comprising: A housing that forms a cavity having a bottom wall and side walls, wherein the bottom wall is rigid and forms the mechanical foundation of the product holding system; and A protective cover, movably connected to the mechanical base and constrained to translate along a straight line, the protective cover forming an adjustable product receiving space between its front surface and the front inner wall of the housing, the protective cover extending laterally toward the side wall of the housing, the lateral extension of the protective cover being spaced apart from the side wall. The shield is temporarily and repeatedly fixed at any of a plurality of locations relative to the mechanical foundation, wherein the shield does not translate relative to the mechanical foundation when fixed, and wherein the shield is translatable relative to the mechanical foundation when released from fixation.

16. The product holding system of claim 15, further comprising: A sliding base, the sliding base being fixed to the mechanical foundation, the sliding base including a track along the side of a closed shape; A slider, movably coupled to the sliding base and constrained to translate along a straight line by sliding a portion therein in the track, wherein the guard is coupled to the slider and thereby coupled to the mechanical base, and wherein the constraint on the movement of the slider constrains the movement of the guard. A slider handle, the slider handle being fixed to the slider, the slider handle including a releasable first attachment mechanism on its bottom surface; and A second attachment mechanism, fixed in place relative to the mechanical foundation, wherein attaching the first attachment mechanism to the second attachment mechanism holds the slider in place—and thereby holds the cover in place, thereby preventing the slider from translating, and wherein detaching the first attachment mechanism from the second attachment mechanism releases the slider—and thereby releases the cover, so as to translate and reattach it at different locations, thereby changing the size of the product receiving space.

17. The product holding system of claim 16, wherein the first attachment mechanism and the second attachment mechanism are hook and loop fasteners.

18. The product holding system of claim 16, wherein the slider handle includes a rigid first stop that moves with the slider handle and prevents the first attachment mechanism from buckling, and wherein the slider includes a rigid second stop that moves with the slider. When the first attachment mechanism is attached to the second attachment mechanism, the first stop block is disposed behind and adjacent to the second stop block.

19. The product holding system of claim 18, wherein when the electronic device is received in the product receiving space and the first attachment mechanism is attached to the second attachment mechanism, the load applied by the electronic device on the housing is transmitted through the housing to the second stop, the first stop, and the mechanical foundation.

20. The product holding system of claim 18, wherein the product holding system comprises: A slider is constrained to translate linearly relative to the mechanical base by sliding a portion of it within a track fixed to the mechanical base, wherein the shield is coupled to the slider and thus to the mechanical base, and wherein the constraint on the movement of the slider constrains the movement of the shield. and A decorative ring passes through the sliding base to form an opening, wherein the decorative ring provides forward and backward stops for the translational movement of the slider.

21. The product holding system of claim 15, wherein the product holding system comprises: A slider, constrained to translate linearly relative to the mechanical foundation by sliding a portion of it within a track fixed to the mechanical foundation, wherein a shield is coupled to the slider and thereby to the mechanical foundation, and wherein the constraint on the movement of the slider constrains the movement of the shield, the slider comprising: The lower portion of the slider, wherein the lower portion of the slider is partially disposed below the sliding base and within the track; and A shield retaining portion is configured to hold the shield in an upright position, wherein the shield retaining portion extends upward from the mechanical base into the cavity, and wherein the shield is secured to the shield retaining portion at the central portion of the shield by a single connection.

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