Movable glass assembly and shower room

Abstract

According to the movable glass assembly and the shower room, a movable glass frame is provided with a first hinge assembly, the first hinge assembly is arranged on one side of the movable glass frame, the first hinge assembly is configured to be used for being connected with a door frame assembly, and therefore the movable glass frame can rotate relative to the door frame assembly through the first hinge assembly; the sub-movable glass assembly is provided with a second hinge assembly, the second hinge assembly is arranged on one side of the sub-movable glass assembly, the sub-movable glass assembly is movably assembled in the frame inner ring of the movable glass frame, and the sub-movable glass assembly rotates relative to the movable glass frame through the second hinge assembly. The first hinge assembly and the second hinge assembly are arranged on the two different sides of the movable glass assembly respectively. Therefore, the door opening direction of the movable glass assembly relative to the door frame assembly is one direction, the door opening direction of the sub movable glass assembly relative to the movable glass frame is the other direction, and the function of bi-directional door opening is achieved.

Description

Technical Field

[0001] This application relates to the field of bathroom technology, and in particular to living glass components and shower enclosures. Background Technology

[0002] Currently, existing shower enclosures only have a one-way opening and closing capability, meaning they can only open to the left or only to the right, offering limited options. If other bathroom fixtures are present in the bathroom and unfortunately occupy the space required for the door opening, the opening method must be carefully selected. Moreover, different enclosure types often require different models of materials, resulting in additional costs in manufacturing and storage. Summary of the Invention

[0003] Therefore, it is necessary to provide a glass panel and a shower enclosure to address the aforementioned technical problems.

[0004] This application provides an active glass module, the active glass module comprising:

[0005] A movable glass frame, wherein the movable glass frame is provided with a first hinge assembly, the first hinge assembly being disposed on one side of the movable glass frame, the first hinge assembly being configured for connecting to a door frame assembly, thereby allowing the movable glass frame to rotate relative to the door frame assembly via the first hinge assembly;

[0006] A sub-movable glass assembly, wherein the sub-movable glass assembly is provided with a second hinge assembly, the second hinge assembly is disposed on one side of the sub-movable glass assembly, the sub-movable glass assembly is movably assembled in the inner ring of the frame of the movable glass frame, and the sub-movable glass assembly rotates relative to the movable glass frame through the second hinge assembly;

[0007] The first hinge assembly and the second hinge assembly are respectively located on two different sides of the movable glass assembly.

[0008] This application provides a shower enclosure, the shower enclosure comprising:

[0009] The active glass assembly;

[0010] A left fixed glass assembly, wherein the left fixed glass assembly is disposed to the left of the movable glass assembly;

[0011] A right-side fixed glass assembly is disposed on the right side of the active glass assembly.

[0012] In one embodiment, the shower room includes:

[0013] The door frame assembly, the movable glass assembly, the left fixed glass assembly and the right fixed glass assembly are assembled inside the door frame assembly.

[0014] In one embodiment, the door frame assembly includes:

[0015] The upper frame is disposed on the upper side of the active glass assembly, the left fixed glass assembly, and the right fixed glass assembly;

[0016] The bottom border is disposed on the lower side of the active glass assembly, the left fixed glass assembly, and the right fixed glass assembly;

[0017] The left frame is located on the left side of the left solid glass assembly;

[0018] The right side frame is located on the right side of the right solid glass assembly;

[0019] The movable glass frame of the movable glass assembly is rotatably assembled with the left solid glass assembly or the right solid glass assembly via the first hinge assembly.

[0020] In the aforementioned movable glass assembly and shower enclosure, the first hinge assembly and the second hinge assembly are respectively located on two different sides of the movable glass assembly. This allows the movable glass assembly (mainly relying on the movable glass frame) to open in one direction relative to the door frame assembly, while the sub-movable glass assembly opens in another direction relative to the movable glass frame, thus achieving a two-way opening function. That is, when the shower enclosure implements its two-way opening function, opening in one direction primarily uses the movable glass assembly as the door, relying on the rotation of the movable glass assembly (mainly relying on the movable glass frame) relative to the door frame assembly; while opening in the other direction primarily uses the sub-movable glass assembly as the door, relying on the rotation of the sub-movable glass assembly relative to the movable glass frame. Attached Figure Description

[0021] Figure 1 This is a schematic diagram of the structure of a shower room provided in one embodiment of this application.

[0022] Figure 2 For example Figure 1 The diagram shown illustrates an explosion of a shower room.

[0023] Figure 3 For example Figure 2 The diagram shown is an exploded view of the active glass assembly.

[0024] Figure 4 For example Figure 3 The diagram shown is an exploded view of the sub-live glass assembly.

[0025] Figure 5 This is an exploded view of a first hinge assembly provided in one embodiment of this application.

[0026] Figure 6 For example Figure 5 A three-dimensional schematic diagram of the closed state of the first hinge assembly shown.

[0027] Figure 7 For example Figure 6 The diagram shows the closed state of the first hinge assembly.

[0028] Figure 8 For example Figure 5 A three-dimensional schematic diagram of the first hinge assembly in the open state.

[0029] Figure 9 For example Figure 8 The diagram shows the open state of the first hinge assembly.

[0030] Figure 10 This is a schematic diagram of the structure of the first handle component provided in one embodiment of this application.

[0031] Figure 11 For example Figure 10 The diagram shows an exploded view of the first handle assembly.

[0032] Figure 12 This is a schematic diagram of the structure of a driven locking block assembly provided in one embodiment of this application.

[0033] Figure 13 For example Figure 12 The diagram shown is an exploded view of the driven lock block assembly.

[0034] Figure 14 This is a schematic diagram of the structure of the second handle assembly provided in one embodiment of this application.

[0035] Figure 15 For example Figure 14 An exploded view of the second handle assembly is shown.

[0036] Figure 16 This is a partial cross-sectional schematic diagram of the first handle assembly in its installed state according to one embodiment of this application.

[0037] Figure 17 This is a perspective view of the shower room with the door open to the right, provided in one embodiment of this application.

[0038] Figure 18 For example Figure 17 The diagram shows the shower room with the door open to the right.

[0039] Figure 19 This is a cross-sectional schematic diagram of the first handle assembly in the closed state provided in one embodiment of this application.

[0040] Figure 20 For example Figure 19 The diagram shows a cross-sectional view of the first handle assembly in the closed state from another perspective.

[0041] Figure 20a For example Figure 20 A partially enlarged schematic diagram of the first handle assembly shown.

[0042] Figure 21 and Figure 22 For example Figure 20 The diagram shows cross-sectional views of two states during the opening process of the first handle assembly.

[0043] Figure 23 This is a three-dimensional schematic diagram of the shower room with the door open to the left, provided in one embodiment of this application.

[0044] Figure 24 For example Figure 23 The diagram shows the shower room with the door open to the left.

[0045] Figure 25 This is a cross-sectional schematic diagram of the second handle assembly provided in one embodiment of this application in the closed state.

[0046] Figure 26 For example Figure 25 The diagram shows a cross-sectional view of the second handle assembly in the closed state from another perspective.

[0047] Figure 27 and Figure 28 For example Figure 26 The diagram shows cross-sectional views of the two states of the second handle assembly during the door opening process.

[0048] Icon labels:

[0049] 100. Door frame components;

[0050] 101. First keyhole; 102. Second keyhole; 110. Left solid glass assembly; 120. Right solid glass assembly; 130. Top frame; 140. Bottom frame; 150. Left frame; 160. Right frame;

[0051] 200. Active glass modules;

[0052] 1000, movable glass frame; 2000, first hinge assembly; 3000, sub-movable glass assembly; 4000, second hinge assembly; 5000, driven locking block assembly;

[0053] 1100, Top frame of movable glass; 1200, Side frame of movable glass; 1300, Rotating frame of movable glass; 1400, Bottom frame of movable glass; 1500, Rotating profile of movable glass;

[0054] 2100, First hinge body; 2200, Second hinge body; 2300, Hinge rotating component; 2400, Hinge rotation axis;

[0055] 3100, Movable door panel; 3200, Sub-movable glass frame; 3300, First handle assembly; 3400, Second handle assembly;

[0056] 3310, First handle base; 3320, First locking block element; 3330, First handle body; 3331, First locking magnetic component; 3341, First driving magnetic component; 3342, First fixed magnetic component; 3343, First movable magnetic component; 3350, First locking block sleeve; 3360, First locking block washer; 3370, First handle shaft; 3380, First fixing screw; 3381, First fixing pressure block; 3390, First handle washer;

[0057] 5100, Driven locking block base; 5200, Driven locking block element; 5310, Driven fixed magnetic component; 5320, Driven movable magnetic component;

[0058] 3410 Second handle base; 3420 Second locking block element; 3430 Second handle body; 3431 Second locking magnetic element; 3441 Second driving magnetic element; 3442 Second fixed magnetic element; 3443 Second movable magnetic element; 3450 Second locking block sleeve; 3460 Second locking block washer; 3470 Second handle shaft; 3480 Second fixing set screw; 3481 Second fixing pressure block; 3490 Second handle washer. Detailed Implementation

[0059] To make the above-mentioned objectives, features, and advantages of this application more apparent and understandable, the specific embodiments of this application are described in detail below with reference to the accompanying drawings. Many specific details are set forth in the following description to provide a thorough understanding of this application. However, this application can be implemented in many other ways different from those described herein, and those skilled in the art can make similar modifications without departing from the spirit of this application. Therefore, this application is not limited to the specific embodiments disclosed below.

[0060] In the description of this application, it should be understood that if terms such as "center", "longitudinal", "lateral", "length", "width", "thickness", "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", "clockwise", "counterclockwise", "axial", "radial", "circumferential" appear, these terms indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings, and are only for the convenience of describing this application and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation, and therefore should not be construed as a limitation of this application.

[0061] Furthermore, where the terms "first" and "second" appear, these terms are for descriptive purposes only and should not be construed as indicating or implying relative importance or implicitly specifying the number of technical features indicated. Thus, a feature defined with "first" or "second" may explicitly or implicitly include at least one of that feature. In the description of this application, where the term "multiple" appears, "multiple" means at least two, such as two, three, etc., unless otherwise explicitly specified.

[0062] In this application, unless otherwise expressly specified and limited, the terms "installation," "connection," "joining," and "fixing," etc., should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral part; they can refer to a mechanical connection or an electrical connection; they can refer to a direct connection or an indirect connection through an intermediate medium; they can refer to the internal communication of two components or the interaction between two components, unless otherwise expressly limited. Those skilled in the art can understand the specific meaning of the above terms in this application based on the specific circumstances.

[0063] In this application, unless otherwise expressly specified and limited, the use of descriptions such as "above" or "below" the second feature indicates that the first and second features are in direct contact or indirect contact via an intermediate medium. Furthermore, "above," "on top of," and "over" the second feature can mean that the first feature is directly above or diagonally above the second feature, or simply that the first feature is at a higher horizontal level than the second feature. Similarly, "below," "below," and "under" the second feature can mean that the first feature is directly below or diagonally below the second feature, or simply that the first feature is at a lower horizontal level than the second feature.

[0064] It should be noted that if an element is referred to as being "fixed to" or "set on" another element, it can be directly on the other element or there may be an intervening element. If an element is considered to be "connected to" another element, it can be directly connected to the other element or there may be an intervening element. If so, the terms "vertical," "horizontal," "upper," "lower," "left," "right," and similar expressions used in this application are for illustrative purposes only and do not represent the only possible implementation.

[0065] This application provides a shower enclosure with a two-way opening function, meaning the shower enclosure can open to the left or right as needed. Therefore, if other bathroom products are present in the bathroom and inadvertently occupy the opening space of the shower enclosure, the user can choose to open the door to the left or right according to the actual situation, thereby appropriately avoiding obstacles, flexibly adjusting the opening method, and improving the applicability of the shower enclosure.

[0066] It should be noted that the aforementioned left-opening door refers to the state where, when a user stands outside the door facing it, pulling the right side of the door causes the left side of the door to rotate and open relative to the room. Similarly, the aforementioned right-opening door refers to the state where, when a user stands outside the door facing it, pulling the left side of the door causes the right side of the door to rotate and open relative to the room. Furthermore, the shower enclosure's movable door panel 3100 and other corresponding door components can be made of glass, while the remaining frames can be made of suitable metal. Those skilled in the art can design according to actual needs, and no limitations are imposed here.

[0067] See Figure 1 As shown, the shower enclosure mainly includes a door frame assembly 100 and a movable glass assembly 200, with the movable glass assembly 200 movably installed within the door frame assembly 100. (Continue reading...) Figure 2 As shown, in one embodiment, the shower room may also include a left solid glass assembly 110, a right solid glass assembly 120, and the door frame assembly 100 may include components such as an upper frame 130, a lower frame 140, a left frame 150, a right frame 160, and a movable glass frame 1000.

[0068] In this embodiment, the left fixed glass assembly 110 is disposed on the left side of the movable glass assembly 200, the right fixed glass assembly 120 is disposed on the right side of the movable glass assembly 200, the upper frame 130 is disposed on the upper side of the movable glass assembly 200, the left fixed glass assembly 110 and the right fixed glass assembly 120, the lower frame 140 is disposed on the lower side of the movable glass assembly 200, the left fixed glass assembly 110 and the right fixed glass assembly 120, the left frame 150 is disposed on the left side of the left fixed glass assembly 110, and the right frame 160 is disposed on the right side of the right fixed glass assembly 120.

[0069] The movable glass component 200 is assembled into the door frame component 100, allowing the movable glass component 200 to be rotatably assembled with the left fixed glass component 110 or the right fixed glass component 120. The rotatable assembly method can be a hinge or other type, and is not limited here. Moreover, those skilled in the art can also select other types or structures of door frame components 100 according to actual needs, making the shower room suitable for other different scenarios, and is not limited here.

[0070] The two-way opening function of the shower enclosure provided in this application mainly depends on the structural design of the movable glass component 200. Therefore, please refer to [further details needed]. Figures 2 to 4As shown, the movable glass assembly 200 provided in this application includes a sub-movable glass assembly 3000. A first hinge assembly 2000 can be provided between the movable glass frame 1000 and the door frame assembly 100 according to assembly requirements. In one embodiment, the first hinge assembly 2000 is disposed on one side of the movable glass frame 1000. The first hinge assembly 2000 is configured to connect the door frame assembly 100. For example, the movable glass frame 1000 of the movable glass assembly 200 can be rotatably assembled with the left fixed glass assembly 110 or the right fixed glass assembly 120 through the first hinge assembly 2000. The movable glass frame 1000 can thus rotate relative to the door frame assembly 100 through the first hinge assembly 2000.

[0071] Meanwhile, a second hinge assembly 4000 is provided between the sub-convertible glass assembly 3000 and the convertible glass frame 1000. In one embodiment, the second hinge assembly 4000 is disposed on one side of the sub-convertible glass assembly 3000, the sub-convertible glass assembly 3000 is movably assembled in the inner ring of the frame of the convertible glass frame 1000, and the sub-convertible glass assembly 3000 rotates relative to the convertible glass frame 1000 through the second hinge assembly 4000.

[0072] The first hinge assembly 2000 and the second hinge assembly 4000 are respectively located on two different sides of the movable glass assembly 200. This allows the movable glass assembly 200 (mainly relying on the movable glass frame 1000) to open in one direction relative to the door frame assembly 100, while the sub-movable glass assembly 3000 opens in another direction relative to the movable glass frame 1000, thus achieving a two-way opening function. That is, when the above-mentioned shower room has a two-way opening function, opening in one direction mainly uses the movable glass assembly 200 as the door, relying on the rotation of the movable glass assembly 200 (mainly relying on the movable glass frame 1000) relative to the door frame assembly 100, while opening in the other direction mainly uses the sub-movable glass assembly 3000 as the door, relying on the rotation of the sub-movable glass assembly 3000 relative to the movable glass frame 1000.

[0073] For example, if the opening direction of the movable glass component 200 (mainly relying on the movable glass frame 1000) relative to the door frame component 100 is defined as right-opening, then the opening direction of the sub-movable glass component 3000 relative to the movable glass frame 1000 is left-opening, thereby achieving a two-way opening function. Of course, the opening direction of the movable glass component 200 (mainly relying on the movable glass frame 1000) relative to the door frame component 100 can also be defined as left-opening, while the opening direction of the sub-movable glass component 3000 relative to the movable glass frame 1000 is right-opening. Those skilled in the art can design according to actual conditions, and no limitations are imposed here.

[0074] In one embodiment, the movable glass assembly 200 may further include a first handle assembly 3300 and a second handle assembly 3400. The first handle assembly 3300 is disposed on one side of the movable glass assembly 3000. The first handle assembly 3300 is mainly used to adapt to the opening and closing of the movable glass assembly 200, so that the first handle assembly 3300 can be configured at least to lock the movable glass frame 1000 and the door frame assembly 100, so that the movable glass frame 1000 cannot rotate relative to the door frame assembly 100, or to release the lock between the movable glass frame 1000 and the door frame assembly 100, so that the movable glass frame 1000 can rotate relative to the door frame assembly 100. At this time, the user can control the movable glass frame 1000 to rotate relative to the door frame assembly 100.

[0075] The second handle assembly 3400 is located on the other side of the sub-operated glass assembly 3000. The second handle assembly 3400 is mainly used to adapt to the opening and closing of the sub-operated glass assembly 3000, so that the second handle assembly 3400 can be configured at least to lock the sub-operated glass assembly 3000 and the glass frame 1000, so that the sub-operated glass assembly 3000 cannot rotate relative to the glass frame 1000, or to release the lock between the sub-operated glass assembly 3000 and the glass frame 1000, so that the sub-operated glass assembly 3000 can rotate relative to the glass frame 1000. At this time, the user can control the sub-operated glass assembly 3000 to rotate relative to the glass frame 1000.

[0076] Regarding the control methods of the aforementioned first handle assembly 3300 and second handle assembly 3400, various methods such as manual control, electric control, magnetic control, and mechanical control can be adopted, and no limitation is made here. Furthermore, the first handle assembly 3300 and second handle assembly 3400 will be described in more detail below at appropriate points.

[0077] The movable glass frame 1000 serves as the rotational basis for the sub-movable glass module 3000. The movable glass frame 1000 can be specifically designed based on the shape and size of the sub-movable glass module 3000, for example, see [reference needed]. Figure 3 As shown, in one embodiment, the movable glass frame 1000 includes a movable glass upper frame 1100, a movable glass side frame 1200, a movable glass rotating frame 1300, and a movable glass lower frame 1400. The top end of the movable glass side frame 1200 is connected to the movable glass upper frame 1100, the top end of the movable glass rotating frame 1300 is connected to the movable glass upper frame 1100, and the movable glass lower frame 1400 is connected to the bottom ends of the movable glass side frame 1200 and the bottom ends of the movable glass rotating frame 1300. The movable glass upper frame 1100, movable glass lower frame 1400, movable glass side frame 1200, and movable glass rotating frame 1300 together form the inner circle of the frame.

[0078] Therefore, a second hinge assembly 4000 is provided between the sub-live glass assembly 3000 and the live glass rotating frame 1300, and the second hinge assembly 4000 is rotatably assembled to the live glass rotating frame 1300.

[0079] Of course, the sub-convertible glass assembly 3000 may also include a movable glass rotating profile 1500, which may be made of aluminum or the like. In this case, the movable glass rotating profile 1500 may be disposed on one side of the sub-convertible glass assembly 3000, and the second hinge assembly 4000 may be rotatably assembled between the movable glass rotating profile 1500 and the movable glass rotating frame 1300. Those skilled in the art can design according to actual conditions, and no limitations are imposed here.

[0080] Among them, see Figures 5 to 9 As shown, the first hinge assembly 2000 may include a first hinge body 2100, a second hinge body 2200, a hinge rotator 2300, and a hinge rotation shaft 2400. The hinge rotator 2300 is rotatably connected to one of the first hinge body 2100 and the second hinge body 2200 via the hinge rotation shaft 2400, and the hinge rotator 2300 is fixedly connected to the other of the first hinge body 2100 and the second hinge body 2200. For example, the first hinge body 2100 is connected to the door frame assembly 100, and the second hinge body 2200 is disposed on the movable glass frame 1000. Similarly, the second hinge assembly 4000 may also adopt the same structural design as the first hinge assembly 2000. Therefore, the structure of the second hinge assembly can be referenced as follows. Figures 5 to 9 The first hinge component 2000 in the process will not be described in detail here.

[0081] Continue reading Figure 4 As shown, in one embodiment, the sub-panel window assembly 3000 may include a movable door panel 3100 and a sub-panel window frame 3200. The sub-panel window frame 3200 is disposed on one side of the movable door panel 3100, and the movable window rotating profile 1500 is assembled to the movable door panel 3100 through the sub-panel window frame 3200. The sub-panel window assembly 3000 may also include a first handle assembly 3300 and a second handle assembly 3400, which may be respectively disposed on both sides of the movable door panel 3100 for controlling the opening and closing of the movable door assembly 200 and the sub-panel window assembly 3000.

[0082] For example, the first handle assembly 3300 and the first hinge assembly 2000 cooperate with each other. The first hinge assembly 2000 is disposed between the movable glass frame 1000 and the door frame assembly 100. The first hinge assembly 2000 is disposed on one side of the movable glass frame 1000, and the first handle assembly 3300 is disposed on the other side of the movable door panel 3100, so that the first handle assembly 3300 and the first hinge assembly 2000 are disposed on different sides. For example, the first hinge assembly 2000 can be disposed on the right side of the movable glass frame 1000, and the first handle assembly 3300 can be disposed on the left side of the movable door panel 3100, or the first hinge assembly 2000 can be disposed on the left side of the movable glass frame 1000, and the first handle assembly 3300 can be disposed on the right side of the movable door panel 3100. There is no limitation here.

[0083] In the above-described different embodiments, the first handle assembly 3300 may be configured at least to lock the movable glass frame 1000 and the door frame assembly 100 so that the movable glass frame 1000 cannot rotate relative to the door frame assembly 100, or to release the lock between the movable glass frame 1000 and the door frame assembly 100 so that the movable glass frame 1000 can rotate relative to the door frame assembly 100, at which point the user can control the movable glass frame 1000 to rotate relative to the door frame assembly 100.

[0084] Meanwhile, the second handle assembly 3400 and the second hinge assembly 4000 cooperate with each other. The second hinge assembly 4000 is provided between the sub-pane glass assembly 3000 and the pantograph frame 1000. The second hinge assembly 4000 is located on one side of the sub-pane glass assembly 3000, and the second handle assembly 3400 is located on the other side of the movable door panel 3100, so that the second handle assembly 3400 and the second hinge assembly 4000 are located on different sides. For example, the second hinge assembly 4000 can be located on the left side of the sub-pane glass assembly 3000 and the second handle assembly 3400 on the right side of the movable door panel 3100, or the second hinge assembly 4000 can be located on the right side of the sub-pane glass assembly 3000 and the second handle assembly 3400 on the left side of the movable door panel 3100. There is no limitation here.

[0085] In the different embodiments described above, the second handle assembly 3400 may be configured at least to lock the sub-container assembly 3000 and the container frame 1000 so that the sub-container assembly 3000 cannot rotate relative to the container frame 1000, or to release the lock between the sub-container assembly 3000 and the container frame 1000 so that the sub-container assembly 3000 can rotate relative to the container frame 1000. At this time, the user can control the sub-container assembly 3000 to rotate relative to the container frame 1000.

[0086] As can be seen from the above embodiments, the first hinge assembly 2000 and the second hinge assembly 4000 are respectively disposed on two different sides of the movable glass assembly 200, and the first handle assembly 3300 and the second handle assembly 3400 are also respectively disposed on both sides of the movable door panel 3100, cooperating with the first hinge assembly 2000 and the second hinge assembly 4000 respectively, thereby controlling the opening and closing of the movable glass assembly 200 and the sub-movable glass assembly 3000. Those skilled in the art can design the matching relationship and assembly position of the first handle assembly 3300, the second handle assembly 3400, the first hinge assembly 2000, and the second hinge assembly 4000 according to actual needs, and no limitations are imposed here.

[0087] The first handle component 3300 can be controlled manually, electrically, magnetically, or mechanically, among other methods; no specific method is specified here. For example, see [link to relevant documentation]. Figure 10 and Figure 11 As shown, in one embodiment, the first handle assembly 3300 may include a first handle base 3310, a first locking block element 3320, and a first handle body 3330. The first handle base 3310 is mounted on the movable door panel 3100, and the first handle base 3310 is provided with a first locking block channel. The first locking block channel can be configured as a straight channel, or it can be designed as a channel of other shapes according to the movement mode of the first locking block element 3320, which is not limited here. Therefore, the first locking block element 3320 can be movably mounted in the first locking block channel and can extend out of or retract into the first locking block channel.

[0088] The first handle body 3330 is movably mounted on the first handle base 3310, and the first handle body 3330 is driven to cooperate with the first locking block element 3320. The first handle body 3330 can drive the first locking block element 3320 to extend or retract into the first locking block channel. The extension or retraction of the first locking block element 3320 can be configured to lock the rotation of the movable glass frame 1000 relative to the door frame assembly 100, or to release the lock of the movable glass frame 1000 relative to the door frame assembly 100.

[0089] For example, the door frame assembly 100 may have a first lock hole 101. When the first locking block element 3320 extends out of the first locking block channel, it can extend into the first lock hole 101, thereby locking the movable glass frame 1000 relative to the door frame assembly 100. Conversely, when the first locking block element 3320 retracts into the first locking block channel, it can exit the first lock hole 101, thereby opening the movable glass frame 1000 relative to the door frame assembly 100.

[0090] In addition, please refer to the following: Figure 12 and Figure 13As shown, in one embodiment, the movable glass assembly 200 may further include a driven locking block assembly 5000, which is disposed on the movable glass rotating frame 1300. The driven locking block assembly 5000 includes a driven locking block base 5100 and a driven locking block element 5200. The driven locking block base 5100 is provided with a driven locking block channel. This driven locking block channel can be configured as a straight channel, or it can be designed as a channel of other shapes according to the movement trajectory of the driven locking block element 5200, which is not limited here. Therefore, the driven locking block element 5200 can be movably assembled in the driven locking block channel and can extend out of or retract into the driven locking block channel.

[0091] Based on the structural design of the first handle assembly 3300 and the driven locking block assembly 5000 described above, the first handle assembly 3300 and the driven locking block assembly 5000 can drive and cooperate with each other. Specifically, the first locking block element 3320 and the driven locking block element 5200 have a mutual driving and cooperating relationship. In one embodiment, the first handle assembly 3300 and the driven locking block assembly 5000 can be arranged along the same direction, so that the first locking block element 3320 and the driven locking block element 5200 can form a matching relationship in the same direction. For example, the first locking block channel and the driven locking block channel are in the same direction, so that the direction in which the first locking block element 3320 extends and retracts from the first locking block channel and the direction in which the driven locking block element 5200 extends and retracts from the driven locking block channel are interconnected.

[0092] Simultaneously, since the door frame assembly 100 has a first lock hole 101, when the first locking block element 3320 moves in the first locking block channel along the extension or retraction direction, the first locking block element 3320 can drive the driven locking block element 5200 to extend or retract synchronously in the driven locking block channel. This drive can be either non-contact magnetic drive or contact stress-driven drive, which is not limited here. When the driven locking block element 5200 moves passively under the drive of the first locking block element 3320, its extension or retraction can pass through the first lock hole 101, thereby locking the rotation of the movable glass frame 1000 relative to the door frame assembly 100, or releasing the locking of the movable glass frame 1000 relative to the door frame assembly 100.

[0093] That is, when the first locking block element 3320 extends out of the first locking block channel, it can drive the driven locking block element 5200 to extend out of the driven locking block channel, thereby indirectly utilizing the driven locking block element 5200 to extend into the first lock hole 101, rather than the first locking block element 3320 extending into the first lock hole 101 itself. Conversely, when the first locking block element 3320 retracts into the first locking block channel, the driven locking block element 5200 can also retract into the driven locking block channel accordingly, thereby exiting the first lock hole 101.

[0094] When the first handle assembly 3300 employs magnetic control, in one embodiment, the first handle assembly 3300 may include a first magnetic component mounted on the first handle base 3310. The first handle body 3330 magnetically drives the first locking block element 3320 to extend or retract into the first locking block channel via the first magnetic component. The driven locking block assembly 5000 may further include a driven magnetic component mounted on the driven locking block base 5100. The first locking block element 3320 drives the driven locking block element 5200 to extend or retract into the driven locking block channel via the driven magnetic component. Therefore, the first handle body 3330 can indirectly drive the driven locking block assembly 5000 to extend or retract relative to the driven locking block channel via the first magnetic component and the driven magnetic component.

[0095] Continue reading Figure 11 , Figures 17 to 22 As shown, the first handle body 3330 is provided with a first driving magnetic element 3341. The first magnetic force assembly may include a first fixed magnetic element 3342 and a first movable magnetic element 3343. The driven magnetic force assembly includes a driven fixed magnetic element 5310 and a driven movable magnetic element 5320. (See reference...) Figure 20 and Figure 20a It can be seen that the relative magnetic force matching relationship of the first driving magnetic element 3341, the first fixed magnetic element 3342, the first movable magnetic element 3343, the driven fixed magnetic element 5310, and the driven movable magnetic element 5320 after assembly is that, along the direction of the first locking block element 3320 extending and retracting from the first locking block channel and the direction of the driven locking block element 5200 extending and retracting from the driven locking block channel (e.g., Figure 20 and Figure 20a (in the left and right directions), the first movable magnetic element 3343 is located between the first driving magnetic element 3341 and the first fixed magnetic element 3342, and the first movable magnetic element 3343 is magnetically repelled by the first driving magnetic element 3341 and the first fixed magnetic element 3342. The driven fixed magnetic element 5310 and the driven movable magnetic element 5320 are also magnetically repelled.

[0096] It should be noted that magnetic repulsion refers to the phenomenon of like poles of magnets (such as N poles to N poles, S poles to S poles) repelling each other, and is one of the fundamental forces between magnets. Its essence stems from the repulsive force generated when magnetic fields are in opposite directions, following the magnetic pole law of "like poles repel, unlike poles attract." For example, when the N poles of two magnets are brought close together, they will push each other away.

[0097] For example, along the direction of the first locking block element 3320 extending and retracting from the first locking block channel and the direction of the driven locking block element 5200 extending and retracting from the driven locking block channel (e.g.) Figure 20 and Figure 20a(in the left and right directions), the N pole of the first driving magnetic element 3341 is to the right and the S pole is to the left, the N pole of the first fixed magnetic element 3342 is to the right and the S pole is to the left, the S pole of the first movable magnetic element 3343 is to the right and the N pole is to the left, the N pole of the driven fixed magnetic element 5310 is to the right and the S pole is to the left, and the S pole of the driven movable magnetic element 5320 is to the right and the N pole is to the left.

[0098] In addition, the magnetic pole directions of the first driving magnetic element 3341, the first fixed magnetic element 3342, the first movable magnetic element 3343, the driven fixed magnetic element 5310, and the driven movable magnetic element 5320 can all be reversed, and no limitation is made here.

[0099] In one embodiment, a first fixed magnetic element 3342 is disposed on a first handle base 3310, and a first movable magnetic element 3343 is disposed on a first locking block element 3320. The first fixed magnetic element 3342 and the first movable magnetic element 3343 are magnetically repelled. Therefore, based on the repelling magnetic relationship between the first fixed magnetic element 3342 and the first movable magnetic element 3343, it can be used to drive the first locking block element 3320 to retract into the first locking block channel. A driven fixed magnetic element 5310 is disposed on a driven locking block base 5100, and a driven movable magnetic element 5320 is disposed on a driven locking block element 5200. The driven fixed magnetic element 5310 and the driven movable magnetic element 5320 are magnetically repelled. Therefore, based on the repelling magnetic relationship between the driven fixed magnetic element 5310 and the driven movable magnetic element 5320, it can be used to drive the driven locking block element 5200 to retract into the driven locking block channel.

[0100] When magnetic driving is implemented using the first driving magnetic element 3341, the first driving magnetic element 3341 and the first movable magnetic element 3343 can be set to magnetically repel each other, and the magnetic repulsion between the first driving magnetic element 3341 and the first movable magnetic element 3343 is greater than the sum of the magnetic repulsion between the first fixed magnetic element 3342 and the first movable magnetic element 3343 and the magnetic repulsion between the driven fixed magnetic element 5310 and the driven movable magnetic element 5320.

[0101] That is, if the magnetic repulsion force between the first driving magnetic element 3341 and the first movable magnetic element 3343 is set to A1, the magnetic repulsion force between the first fixed magnetic element 3342 and the first movable magnetic element 3343 is set to A2, and the magnetic repulsion force between the driven fixed magnetic element 5310 and the driven movable magnetic element 5320 is set to A3, then A1 > A2 + A3.

[0102] This magnetic interaction allows the first driving magnetic element 3341 to have sufficient magnetic driving force, which forces the first driving magnetic element 3341 and the first movable magnetic element 3343 to magnetically approach each other, thereby driving the driven fixed magnetic element 5310 and the driven movable magnetic element 5320 to approach each other. Finally, the magnetic control of the driven locking block element 5200 extends out of the driven locking block channel and extends into the first lock hole 101, locking the rotation of the movable glass frame 1000 relative to the door frame assembly 100 through the first hinge assembly 2000. At this time, the movable glass assembly 200 can be closed relative to the door frame assembly 100, realizing the closing of the right-opening door function.

[0103] Continue reading Figure 11 As shown, the first handle assembly 3300 may also include components such as the first locking block sleeve 3350, the first locking block washer 3360, the first handle shaft 3370, the first fixing screw 3380, the first fixing pressure block 3381, and the first handle washer 3390.

[0104] The first handle body 3330 is rotatably assembled to the first handle base 3310, which can be configured as a concealed handle. For example, the center of the first handle base 3310 can be hollowed out to create a storage space that matches the shape and size of the first handle body 3330. When the first handle body 3330 is rotated into this storage space, it can combine with the first handle base 3310 to form a flat, integral structure, such as a plate or block, which is not limited here. See also... Figure 16 As shown, the inclined portion of the first fixing block 3381 can fit with the inclined portion of the first handle pad 3390. By locking the first fixing screw 3380, the first handle pad 3390 and the first fixing block 3381 are forced to expand apart, thereby causing the outer side of the first handle pad 3390 to press against the movable door panel 3100, thus achieving a fixing effect.

[0105] Continue reading Figure 19 As shown, the first handle body 3330 and the first handle base 3310 can also be provided with first locking magnets 3331 that attract each other magnetically. The two first locking magnets are set to a state in which the magnetic poles attract each other. Thus, the magnetic attraction between the two can be used to store the first handle body 3330 in the storage space of the first handle base 3310, and combine the first handle body 3330 and the first handle base 3310 into the aforementioned flat overall structure, thus constructing a hidden state.

[0106] The structural shapes of the first driving magnetic element 3341, the first fixed magnetic element 3342, the first movable magnetic element 3343, the driven fixed magnetic element 5310, the driven movable magnetic element 5320, and the first locking magnetic element 3331 can be designed as square, circular, or other suitable shapes. For example, in one embodiment, see [continued reading] Figures 19 to 21 As shown, the first movable magnetic component 3343 is circular, while the first driving magnetic element 3341 and the two first locking magnetic components 3331 are square. Furthermore, in terms of magnetic force, the two first locking magnetic components 3331 ≥ the first driving magnetic element 3341 > the first movable magnetic component 3343 ≥ the first fixed magnetic component 3342 ≥ the driven movable magnetic component 5320 ≥ the driven fixed magnetic component 5310.

[0107] When the door is closed, the first handle body 3330 is housed in the first handle base 3310 under the magnetic attraction of the two first locking magnets 3331, and is in a reset and hidden state. At this time, the first driving magnetic element 3341 and the first movable magnetic element 3343 repel each other due to their like poles, and the repulsive force is greater than the repulsive force between the first movable magnetic element 3343 and the first fixed magnetic element 3342. This forces the first locking block element 3320 to push out to the left, thereby pressuring the driven locking block element 5200 to overcome the repulsive force between the driven movable magnetic element 5320 and the driven fixed magnetic element 5310 and push out to the left. The driven locking block element 5200 extends into the first lock hole 101, locking the movable glass frame 1000 through the rotation of the first hinge assembly 2000 relative to the door frame assembly 100, forming a left-side locking effect. This causes the rotation of the first hinge assembly 2000 to be blocked, achieving the limiting purpose of the first hinge assembly 2000.

[0108] When it is necessary to release the first hinge assembly 2000 from its limit (i.e., to open and close the door to the right), the first handle body 3330 can be flipped outward from its hidden state. As the repulsive force of the first driving magnetic element 3341 on the first movable magnetic element 3343 gradually decreases and reaches a level lower than the repulsive force between the first movable magnetic element 3343 and the first fixed magnetic element 3342, the first locking block element 3320 moves to the right under the action of the repulsive force. After the first locking block element 3320 loses its leftward force, the driven locking block element 5200 moves to the right and resets under the repulsive force of the driven fixed magnetic element 5310 and the driven movable magnetic element 5320. At this point, the first hinge assembly 2000 can be released from its limit, and the door can be opened and closed to the right.

[0109] The second handle assembly 3400 can be controlled manually, electrically, magnetically, or mechanically, among other methods; no specific method is specified here. For example, see [link to relevant documentation]. Figure 14 and Figure 15As shown, in one embodiment, the second handle assembly 3400 may include a second handle base 3410, a second locking block element 3420, and a second handle body 3430. The second handle base 3410 is mounted on the movable door panel 3100, and the second handle base 3410 is provided with a second locking block channel. This second locking block channel can be a straight channel, or it can be designed as a channel of other shapes depending on the movement mode of the second locking block element 3420; no limitation is made here. Therefore, the second locking block element 3420 is movably mounted in the second locking block channel and can extend out of or retract into the second locking block channel.

[0110] The second handle body 3430 is movably mounted on the second handle base 3410, and the second handle body 3430 is driven to cooperate with the second locking block element 3420. The second handle body 3430 can be configured to drive the second locking block element 3420 to extend or retract into the second locking block channel. The extension or retraction of the second locking block element 3420 can be configured to lock the rotation of the sub-live glass assembly 3000 relative to the live glass frame 1000, or to release the lock of the sub-live glass assembly 3000 relative to the live glass frame 1000.

[0111] For example, the door frame assembly 100 may have a second lock hole 102. When the second locking block element 3420 extends out of the second locking block channel, it can extend into the second lock hole 102, thereby locking the sub-tunable glass assembly 3000 relative to the tunable glass frame 1000. Conversely, when the second locking block element 3420 retracts into the second locking block channel, it can exit the second lock hole 102, thereby opening the sub-tunable glass assembly 3000 relative to the tunable glass frame 1000.

[0112] When the second handle assembly 3400 employs magnetic control, in one embodiment, the second handle assembly 3400 includes a second magnetic component mounted on the second handle base 3410. The second handle body 3430 magnetically drives the second locking element 3420 to extend or retract into the second locking channel via the second magnetic component. Therefore, the second handle body 3430 can indirectly drive the second locking element 3420 to extend or retract relative to the second locking channel via the second magnetic component.

[0113] Continue reading Figure 15 , Figures 23 to 28 As shown, the second handle body 3430 is provided with a second driving magnetic element 3441, and the second magnetic assembly includes a second fixed magnetic element 3442 and a second movable magnetic element 3443, wherein, see reference Figure 26 The relative magnetic force matching relationship of the second driving magnetic element 3441, the second fixed magnetic element 3442, and the second movable magnetic element 3443 after assembly can be clearly obtained, that is, along such... Figure 26In the left-right direction, the second movable magnetic element 3443 is located between the second driving magnetic element 3441 and the second fixed magnetic element 3442, and the second movable magnetic element 3443 is magnetically repelled by the second driving magnetic element 3441 and the second fixed magnetic element 3442.

[0114] It should be noted that magnetic repulsion refers to the phenomenon of like poles of magnets (such as N poles to N poles, S poles to S poles) repelling each other, and is one of the fundamental forces between magnets. Its essence stems from the repulsive force generated when magnetic fields are in opposite directions, following the magnetic pole law of "like poles repel, unlike poles attract." For example, when the N poles of two magnets are brought close together, they will push each other away. Conversely, they will attract each other.

[0115] For example, along such Figure 26 In the left-right direction, the S pole of the second driving magnetic element 3441 points to the right and the N pole points to the left; the S pole of the second fixed magnetic element 3442 points to the right and the N pole points to the left; and the N pole of the second movable magnetic element 3443 points to the right and the S pole points to the left. In addition, the magnetic pole directions of the second driving magnetic element 3441, the second fixed magnetic element 3442, and the second movable magnetic element 3443 can all be reversed, and this is not limited here.

[0116] In one embodiment, the second fixed magnetic element 3442 is disposed on the second handle base 3410, and the second movable magnetic element 3443 is disposed on the second locking block element 3420. The second fixed magnetic element 3442 and the second movable magnetic element 3443 are magnetically repulsive and cooperate. Therefore, based on the magnetically repulsive cooperation relationship between the second fixed magnetic element 3442 and the second movable magnetic element 3443, it can be used to drive the second locking block element 3420 to retract the second locking block channel.

[0117] When using the second driving magnetic element 3441 for magnetic driving, the second driving magnetic element 3441 and the second movable magnetic element 3443 can be set to be magnetically repulsive, and the magnetic repulsion between the second driving magnetic element 3441 and the second movable magnetic element 3443 is greater than the magnetic repulsion between the second fixed magnetic element 3442 and the second movable magnetic element 3443. That is, if the magnetic repulsion between the second driving magnetic element 3441 and the second movable magnetic element 3443 is set to B1, and the magnetic repulsion between the second fixed magnetic element 3442 and the second movable magnetic element 3443 is set to B2, then B1 > B2.

[0118] This magnetic interaction allows the second driving magnetic element 3441 to have sufficient magnetic driving force, which forces the second driving magnetic element 3441 and the second movable magnetic element 3443 to magnetically approach each other. Ultimately, the magnetic control extends the second locking block element 3420 out of the second locking block channel and inserts the second locking block element 3420 into the second lock hole 102, locking the rotation of the sub-hinged glass assembly 3000 relative to the movable glass frame 1000 through the second hinge assembly 4000. At this time, the sub-hinged glass assembly 3000 can be closed relative to the movable glass frame 1000, realizing the closing of the left-opening door function.

[0119] Continue reading Figure 15 As shown, the second handle assembly 3400 may also include components such as a second locking block sleeve 3450, a second locking block washer 3460, a second handle shaft 3470, a second fixing screw 3480, a second fixing pressure block 3481, and a second handle washer 3490.

[0120] The second handle body 3430 is rotatably assembled to the second handle base 3410, which can be constructed as a concealed handle. For example, the center of the second handle base 3410 is hollowed out to create a storage space that matches the shape and size of the second handle body 3430. When the second handle body 3430 rotates into this storage space, it can combine with the second handle base 3410 to form a flat, integral structure, such as a plate or block, which is not limited here. The inclined portion of the second fixing block 3481 can fit against the inclined portion of the second handle pad 3490. By tightening the second fixing screw 3480, the second handle pad 3490 and the second fixing block 3481 are forced to expand apart, thereby causing the outer side of the second handle pad 3490 to press against the movable door panel 3100, thus achieving a fixing effect. The corresponding structure of the second handle assembly 3400 is the same as that of the first handle assembly 3300, therefore, please refer to [reference needed]. Figure 16 The fixing structure of the first handle component 3300.

[0121] Continue reading Figure 25 As shown, the second handle body 3430 and the second handle base 3410 may also be provided with second locking magnets 3431 that attract each other magnetically. The two second locking magnets are set to a state in which the magnetic poles attract each other. Thus, the magnetic attraction between the two can be used to store the second handle body 3330 in the storage space of the second handle base 3310, and combine the second handle body 3330 and the second handle base 3310 into the aforementioned flat overall structure, thus constructing a hidden state.

[0122] Similarly, the magnetic engagement between the second handle body 3430 and the second handle base 3410, as well as the magnetic limiting structure with the second hinge assembly 4000, all adopt the same principle as the structural designs of the first driving magnetic element 3341, the first fixed magnetic element 3342, the first movable magnetic element 3343, the driven fixed magnetic element 5310, the driven movable magnetic element 5320, and the first locking magnetic element 3331 mentioned above. Therefore, please refer to the previous description, and it will not be repeated here.

[0123] Comprehensive reference Figures 1 to 28 The overall design of the shower room shown is based on the design that the first hinge component 2000 and the second hinge component 4000 are respectively located on two different sides of the movable glass component 200, which enables the shower room to have a two-way opening function.

[0124] Among them, the movable glass component 200 (mainly relying on the movable glass frame 1000) can open in one direction relative to the door frame component 100, and the sub-movable glass component 3000 can open in another direction relative to the movable glass frame 1000, thereby realizing the function of bidirectional door opening.

[0125] When the door is opened in one direction, the movable glass component 200 is mainly used as the door, relying on the rotation of the movable glass component 200 (mainly relying on the movable glass frame 1000) relative to the door frame component 100. When the door is opened in the other direction, the sub-movable glass component 3000 is mainly used as the door, relying on the rotation of the sub-movable glass component 3000 relative to the movable glass frame 1000.

[0126] For example, when the opening direction of the movable glass component 200 (mainly relying on the movable glass frame 1000) relative to the door frame component 100 is limited to opening to the right, the opening direction of the sub-movable glass component 3000 relative to the movable glass frame 1000 is opening to the left, thereby realizing the function of opening the door in both directions.

[0127] The technical features of the above embodiments can be combined in any way. For the sake of brevity, not all possible combinations of the technical features in the above embodiments are described. However, as long as there is no contradiction in the combination of these technical features, they should be considered to be within the scope of this specification.

[0128] The embodiments described above are merely examples of several implementation methods of this application, and while the descriptions are relatively specific and detailed, they should not be construed as limiting the scope of the patent application. It should be noted that those skilled in the art can make various modifications and improvements without departing from the concept of this application, and these modifications and improvements all fall within the protection scope of this application.

Claims

1. A live glass module (200), characterized in that, The active glass assembly includes: A movable glass frame (1000) is provided with a first hinge assembly (2000) disposed on one side of the movable glass frame (1000) and configured to connect to a door frame assembly (100), thereby allowing the movable glass frame (1000) to rotate relative to the door frame assembly (100) via the first hinge assembly (2000). A sub-convertible glass assembly (3000) is provided with a second hinge assembly (4000) between the sub-convertible glass assembly (3000) and the movable glass frame (1000). The sub-convertible glass assembly (3000) is movably assembled in the inner ring of the frame of the movable glass frame (1000), and the sub-convertible glass assembly (3000) rotates relative to the movable glass frame (1000) through the second hinge assembly (4000). The first hinge assembly (2000) and the second hinge assembly (4000) are respectively located on two different sides of the movable glass assembly (200).

2. The active glass module (200) according to claim 1, characterized in that, The active glass module (200) includes: A first handle assembly (3300) is disposed on one side of the sub-container glass assembly (3000), and the first handle assembly (3300) is configured at least to lock the rotation of the container glass frame (1000) relative to the door frame assembly (100), or to release the lock of the container glass frame (1000) relative to the door frame assembly (100). A second handle assembly (3400) is disposed on the other side of the sub-container assembly (3000), and the second handle assembly (3400) is configured at least to lock the rotation of the sub-container assembly (3000) relative to the container frame (1000), or to release the locking of the sub-container assembly (3000) relative to the container frame (1000).

3. The active glass module (200) according to claim 1, characterized in that, The active glass frame (1000) includes: Rotating glass frame (1300); A movable glass rotating profile (1500) is disposed on one side of the sub-movable glass assembly (3000). The sub-movable glass assembly (3000) indirectly provides the second hinge assembly (4000) through the movable glass rotating profile (1500). The second hinge assembly (4000) is rotatably assembled between the movable glass rotating profile (1500) and the movable glass rotating frame (1300).

4. The active glass module (200) according to claim 3, characterized in that, The active glass frame (1000) also includes: The side frame of the movable glass is 1200mm. The top edge of the movable glass upper frame (130) is connected to the top edge of the movable glass side frame (1200), and the top edge of the movable glass rotating frame (1300) is connected to the top edge of the movable glass upper frame (130). The movable glass bottom frame (140) is connected to the bottom end of the movable glass side frame (1200) and the bottom end of the movable glass rotating frame (1300). The movable glass top frame (130), the movable glass bottom frame (140), the movable glass side frame (1200) and the movable glass rotating frame (1300) together form the inner circle of the frame.

5. The active glass module (200) according to claim 4, characterized in that, The sub-active glass module (3000) includes: Movable door panel (3100); A first handle assembly (3300) is disposed on one side of the movable door panel (3100). The first handle assembly (3300) is configured at least to lock the rotation of the movable glass frame (1000) relative to the door frame assembly (100), or to release the locking of the movable glass frame (1000) relative to the door frame assembly (100). A second handle assembly (3400) is disposed on the other side of the movable door panel (3100). The second handle assembly (3400) is configured at least to lock the rotation of the sub-movable glass assembly (3000) relative to the movable glass frame (1000), or to release the locking of the sub-movable glass assembly (3000) relative to the movable glass frame (1000).

6. The active glass module (200) according to claim 5, characterized in that, The first handle assembly (3300) includes: The first handle base (3310) is mounted on the movable door panel (3100), and the first handle base (3310) is provided with a first lock block channel; The first locking block element (3320) is movably mounted on the first locking block channel; The first handle body (3330) is movably mounted on the first handle base (3310), and the first handle body (3330) is driven to cooperate with the first locking block element (3320). The first handle body (3330) is configured to drive the first locking block element (3320) to extend or retract from the first locking block channel. The extension or retraction of the first locking block element (3320) can be configured to lock the rotation of the movable glass frame (1000) relative to the door frame assembly (100), or to release the locking of the movable glass frame (1000) relative to the door frame assembly (100).

7. The active glass module (200) according to claim 6, characterized in that, The active glass module (200) includes: A driven locking block assembly (5000) is disposed on the movable glass rotating frame (1300). The driven locking block assembly (5000) includes a driven locking block base (5100) and a driven locking block element (5200). The driven locking block base (5100) is provided with a driven locking block channel, and the driven locking block element (5200) is movably assembled in the driven locking block channel. The door frame assembly (100) has a first lock hole (101). The extension or retraction of the first locking block element (3320) is configured to drive the driven locking block element (5200) to extend or retract from the driven locking block channel. The extension or retraction of the driven locking block element (5200) is configured to pass through the first lock hole (101), thereby locking the rotation of the movable glass frame (1000) relative to the door frame assembly (100) or releasing the locking of the movable glass frame (1000) relative to the door frame assembly (100).

8. The active glass module (200) according to claim 7, characterized in that, The first handle assembly (3300) includes: A first magnetic component is mounted on the first handle base (3310), and the first handle body (3330) is magnetically driven by the first magnetic component to extend or retract the first locking block element (3320) into the first locking block channel; and / or, The driven magnetic assembly is mounted on the driven locking block base (5100), and the first locking block element (3320) drives the driven locking block element (5200) to extend or retract into the driven locking block channel through the driven magnetic assembly.

9. The active glass module (200) according to claim 8, characterized in that, The first magnetic component includes a first fixed magnetic element (3342) and a first movable magnetic element (3343). The first fixed magnetic element (3342) is disposed on the first handle base (3310), and the first movable magnetic element (3343) is disposed on the first locking block element (3320). The first fixed magnetic element (3342) and the first movable magnetic element (3343) are magnetically repelled and cooperate to drive the first locking block element (3320) to retract into the first locking block channel. The driven magnetic assembly includes a driven fixed magnetic component (5310) and a driven movable magnetic component (5320). The driven fixed magnetic component (5310) is disposed on the driven locking block base (5100), and the driven movable magnetic component (5320) is disposed on the driven locking block element (5200). The driven fixed magnetic component (5310) and the driven movable magnetic component (5320) are magnetically repelled and engaged to drive the driven locking block element (5200) to retract into the driven locking block channel. The first handle body (3330) is provided with a first driving magnetic element (3341). The first driving magnetic element (3341) and the first movable magnetic element (3343) are magnetically repulsive to each other. The magnetic repulsion between the first driving magnetic element (3341) and the first movable magnetic element (3343) is greater than the sum of the magnetic repulsion between the first fixed magnetic element (3342) and the first movable magnetic element (3343) and the magnetic repulsion between the driven fixed magnetic element (5310) and the driven movable magnetic element (5320). And / or, The first handle body (3330) is rotatably mounted on the first handle base (3310).

10. A shower enclosure, characterized in that, The shower room includes: The active glass assembly (200) as described in any one of claims 1-9; A left fixed glass assembly (110) is disposed on the left side of the movable glass assembly (200); A right-side fixed glass assembly (120) is disposed on the right side of the active glass assembly (200).

11. The shower room according to claim 10, characterized in that, The shower room includes: The door frame assembly (100) is assembled with the movable glass assembly (200), the left fixed glass assembly (110) and the right fixed glass assembly (120) inside the door frame assembly (100).

12. The shower room according to claim 11, characterized in that, The door frame assembly (100) includes: The upper frame (130) is disposed on the upper side of the active glass assembly (200), the left fixed glass assembly (110) and the right fixed glass assembly (120); The lower frame (140) is disposed on the lower side of the active glass assembly (200), the left fixed glass assembly (110) and the right fixed glass assembly (120); A left frame (150) is provided on the left side of the left solid glass assembly (110); A right frame (160) is provided on the right side of the right solid glass assembly (120); The movable glass frame (1000) of the movable glass assembly (200) is rotatably assembled with the left fixed glass assembly (110) or the right fixed glass assembly (120) via the first hinge assembly (2000).

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