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    Method for realizing a multi-channel convolutional recurrent neural network eeg emotion recognition model using transfer learning

    12695072900B2
    发明人
    WANG LIANG-HUNG, KUO I-CHUN
    受让人
    UNIV FUZHOU
    申请人
    東芝三菱電機産業システム株式会社
    申请号
    030110
    申请日
    2009-12-15
    公开(公告)号
    12695072900B2
    公开(公告)日
    2012-07-02
    IPC分类号
    F16H001/36
    CPC分类号
    -
    优先权号
    110074
    优先权日
    2005-11-16
    摘要

    The device sets the operation threshold up to the gas sensor standard contamination degree. The gas sensor (2) made from a MOS device detects the degree of contamination of the air being affected by the air conditioner.

    The controller (3) has a standard degree of contamination value setting part (7), a memory (8) that retains the set degree of contamination, a degree of contamination detector (9), and the air conditioner controller (14) as its main parts.

    ADVANTAGE -Prevents improper air conditioner operation.

    权利要求
    What is claimed is:
    1. A method of performing a predetermined processing for an electric circuit on a circuit-constituting member by employing plasma generated by employing a high frequency electric voltage on specified gases introduced into a vacuum space, comprising the step of: starting said predetermined processing for said electric circuit on said circuit-constituting member when it is confirmed that said plasma is brought into a stable condition thereof after starting of generation of said plasma.
    2. The method as set forth in claim 1, further comprising the step of: detecting a predetermined time lapse after the starting of generation of said plasma to thereby confirm that said stable condition of said plasma is reached.
    3. The method as set forth in claim 1, wherein said method further comprises the steps of: transferring said circuit-constituting member from a first position where said plasma is generated to a second position where said plasma is not generated before said generation of plasma is started; and returning said circuit-constituting member from said second position to said first position when said stable condition of plasma is reached.
    4. The method as set forth in claim 2, wherein said method further comprises the steps of: transferring said circuit-constituting member from a first position where said plasma is generated to a second position where said plasma is not generated before said generation of plasma is started; and returning said circuit-constituting member from said second position to said first position when said stable condition of plasma is reached.
    5. The method as set forth in claim 1, wherein said method further comprises the steps of: covering said circuit-constituting member against a position where said plasma is generated before said generation of plasma is started; and uncovering said circuit-constituting member to thereby expose said circuit-constituting member to said plasma at the position where said plasma is generated when said stable condition of plasma is reached.
    6. The method as set forth in claim 2, wherein said method further comprises the steps of: covering said circuit-constituting member against a position where said plasma is generated before said generation of plasma is started; and uncovering said circuit-constituting member to thereby expose said circuit-constituting member to said plasma at the position where said plasma is generated when said stable condition of plasma is reached.
    7. The method as set forth in claim 3, wherein said method further comprises the steps of: vacuumizing said first position to a predetermined low vacuum condition before said generation of plasma is started; vacuumizing further said first position to a predetermined high vacuum condition; and implementing said returning of said circuit-constituting member from said second position to said first position at the high vacuum condition.
    8. The method as set forth in claim 4, wherein said method further comprises the steps of: vacuumizing said first position to a predetermined low vacuum condition before said generation of plasma is started; vacuumizing further said first position to a predetermined high vacuum condition; and implementing said returning of said circuit-constituting member from said second position to said first position at the high vacuum condition.
    9. A method of controlling a motion of an apparatus for performing a predetermined processing for an electric circuit on a circuit-constituting member by employing plasma generated by a plasma-generation means which employs a high frequency electric voltage on specified gases introduced into a vacuum space, comprising the steps of: detecting a stable condition of said plasma by a detecting means when generation of said plasma is started by said plasma generation means; and starting said predetermined processing for said electric circuit on said circuit-constituting member when said detecting means detects that said plasma is brought into a stable condition thereof.
    10. A method of controlling the motion of an apparatus for performing a predetermined processing for an electric circuit on a circuit-constituting member including a hollow plasma generative portion in which plasma is generated, a hollow waiting portion for a processed object consisting of a circuit-constituting member, said portion being operatively connected to the plasma generative portion, and a member-transferring means for supporting thereon said circuit-constituting member and for transferring said processed object to each of said waiting portion and said plasma generative portion, said apparatus for performing said predetermined processing for said electric circuit on said circuit-constituting member by said plasma when said circuit-constituting member is transferred by said member-transferring means from said hollow waiting portion to said plasma generative portion, wherein said controlling method comprises the steps of: positioning said circuit-constituting member at said hollow waiting portion when generation of said plasma is started in said plasma generative portion; and transferring said circuit-constituting member from said hollow waiting portion to said plasma generative portion by said member-transferring means when said plasma in said plasma generative portion is brought into a stable condition thereof after the starting of generation of said plasma.
    11. A method of controlling the motion of an apparatus for performing a predetermined processing for an electric circuit on a circuit-constituting member including a hollow plasma generative portion in which plasma is generated, a plasma generating means for generating plasma at a first predetermined position in said plasma generative portion, a member-holding means for holding said circuit-constituting member at a second predetermined position opposing said first predetermined position in said plasma generative portion, a member-coverage means for applying removable coverage to said circuit-constituting member between said first predetermined position where said plasma is generated by said plasma generating means and said second predetermined position where said circuit-constituting member is held by said member-holding means, said apparatus for performing said predetermined processing for said electric circuit on said circuit-constituting member by said plasma, wherein said controlling method comprises the steps of: effecting application of said coverage to said circuit-constituting member when generation of said plasma by said plasma generating means is started; and removing said coverage from said circuit-constituting member when said plasma generated by said plasma generating means is brought into a stable condition thereof after the starting of generation of said plasma.
    12. An apparatus for performing a predetermined processing for an electric circuit on a circuit-constituting member by employing plasma generated by employing a high frequency electric voltage on specified gases introduced into a vacuum space, comprising: a plasma generating means for generating said plasma; a stability detecting means for detecting a stable condition of said plasma upon being started to generate by said plasma generating means; and, a processing controlling means for controlling start of said predetermined processing for said electric circuit on said circuit-constituting member when said detecting means detects said stable condition of said plasma.
    13. An apparatus for performing a predetermined processing for an electric circuit on a circuit-constituting member by employing plasma generated by employing a high frequency electric voltage on specified gases introduced into a vacuum space, comprising: a plasma generative portion defined to have an interior space thereof in which said plasma is generated; a hollow member-waiting portion defined to have an interior thereof operatively connected to said plasma generative portion; a member-transferring means for supporting thereon said circuit-constituting member while permitting said circuit-constituting member to be freely transferred to said member-waiting portion and said plasma generative portion; a stability detecting means for detecting a stable condition of said plasma upon being started to generate in said plasma generative portion; and, a processing controlling means for permitting said circuit-constituting member to be positioned in said hollow member-waiting portion by said member-transferring means when generation of said plasma is started in said plasma generative portion and for permitting said circuit-constituting member to be transferred from said hollow member-waiting portion to said plasma generative portion by said member-transferring means when stability detecting means detects said stable condition of said plasma.
    14. An apparatus for performing a predetermined processing for an electric circuit on a circuit-constituting member by employing plasma generated by employing a high frequency electric voltage on specified gases introduced into a vacuum space, comprising: a plasma generative portion defined to have an interior space thereof in which said plasma is generated; a plasma generating means for generating plasma at a predetermined position in said plasma generative portion; a member-holding means for holding said circuit-constituting member in said plasma generative portion at a different position opposing said predetermined position where said plasma is generated by said plasma generating means; a member-coverage means for removably covering said circuit-constituting member between said predetermined position where said plasma is generated by said plasma generating means and said different position where said circuit-constituting member is held by said member-holding means; a stability detecting means for detecting a stable condition of said plasma upon being started to generate by said plasma generating means; and, a processing controlling means for permitting said circuit-constituting member to be covered by said member-coverage means when said plasma generating means starts to generate said plasma, and for permitting said member-coverage means to remove covering of said circuit-constituting member when stability detecting means detects said stable condition of said plasma.
    15. The apparatus as set forth in claim 10, further comprising a vacuum adjusting means for adjustably varying a degree of vacuum prevailing in said plasma generative portion, and wherein said processing controlling means permits said vacuum adjusting means to produce a predetermined low vacuum condition in said plasma generative portion when said plasma starts to be generated in said plasma generative portion, said processing controlling means further permitting said vacuum adjusting means to produce a predetermined high vacuum condition in said plasma generative portion before said circuit-constituting member is transferred to said plasma generative portion when said stable condition of said plasma is reached.
    16. The apparatus as set forth in claim 13, wherein at least when said circuit-constituting member is transferred from said hollow member-waiting portion to said plasma generative portion, said hollow member-waiting portion is held at a predetermined low vacuum condition less than a vacuum condition prevailing in said plasma generative portion.
    17. The apparatus as set forth in claim 15, wherein at least when said circuit-constituting member is transferred from said hollow member-waiting portion to said plasma generative portion, said hollow member-waiting portion is held at a predetermined low vacuum condition less than a vacuum condition prevailing in said plasma generative portion.
    18. The apparatus as set forth in claim 12, wherein said stability detecting means detects said stable condition of said plasma in response to detection of a predetermined time lapse from a start of generation of said plasma.
    19. The apparatus as set forth in claim 13, wherein said stability detecting means detects said stable condition of said plasma in response to detection of a predetermined time lapse from a start of generation of said plasma.
    20. The apparatus as set forth in claim 14, wherein said stability detecting means detects said stable condition of said plasma in response to detection of a predetermined time lapse from a start of generation of said plasma.
    21. The apparatus as set forth in claim 15, wherein said stability detecting means detects said stable condition of said plasma in response to detection of a predetermined time lapse from a start of generation of said plasma.
    22. The apparatus as set forth in claim 16, wherein said stability detecting means detects said stable condition of said plasma in response to detection of a predetermined time lapse from a start of generation of said plasma.
    23. The apparatus as set forth in claim 17, wherein said stability detecting means detects said stable condition of said plasma in response to detection of a predetermined time lapse from a start of generation of said plasma.
    24. An apparatus for controlling a motion of a circuit-processing performing apparatus in which a predetermined processing for an electric circuit is processed on a circuit-constituting member by plasma generated by employing a high frequency electric voltage on specified gases introduced into a vacuum space, wherein said controlling apparatus comprises: a stability detecting means for detecting a stable condition of said plasma that has started to be generated; and, a processing controlling means for starting said predetermined processing for said electric circuit to be processed on said circuit-constituting member after said stability detecting means detects said stable condition of said plasma.
    25. An apparatus for controlling a motion of a circuit-processing performing apparatus provided with a hollow plasma-generative portion defined to have an interior thereof in which plasma is generated, a hollow member-waiting portion defined to have an interior thereof operatively connected to said interior of said plasma-generative portion, and a member-transferring means for supporting thereon a processed object consisting of a circuit-constituting member while permitting said circuit-constituting member to be transferred to said member-waiting portion and said plasma-generative portion, said circuit-constituting member being processed by said plasma when said circuit-constituting member is transferred from said member-waiting portion to said plasma-generative portion, wherein said controlling apparatus comprises: a stability detecting means for detecting a stable condition of said plasma that has started to be generated in said plasma-generative portion; and, a processing controlling means for permitting said circuit-constituting member to be positioned by said member-transferring means in said member-waiting portion when said plasma starts to be generated in said plasma-generative portion, and for permitting said circuit-constituting member to be transferred by said member-transferring means from said member-waiting portion to said plasma-generative portion when said stability detecting means detects said stable condition of said plasma.
    26. An apparatus for controlling a motion of a circuit-processing performing apparatus provided with a hollow plasma-generative portion defined to have an interior thereof in which plasma is generated, a plasma generating means for generating said plasma at a predetermined position in said hollow plasma-generative portion, a member-holding means for holding said circuit-constituting member in said plasma-generative portion at a position opposing said predetermined position where said plasma is generated by said plasma generating means, and a member-coverage means for removably covering said circuit-constituting member between said predetermined position where said plasma is generated by said plasma generating means and said position where said member-holding means holds said circuit-constituting member, said circuit-processing performing apparatus processing said circuit-constituting member by said plasma, wherein said controlling apparatus comprises: a stability detecting means for detecting a stable condition of said plasma that has started to be generated by said plasma generating means; and, a processing controlling means for permitting said member-coverage means to cover said circuit-constituting member when said plasma generating means starts to generate said plasma, and for permitting said member-coverage means to remove covering from said circuit-constituting member when said stability detecting means detects said stable condition of said plasma.
    27. An information storage medium for storing a program freely read by an electronic computer that controls a motion of a circuit-processing performing apparatus in which a predetermined processing for an electric circuit is processed on a circuit-constituting member by plasma generated by employing a high frequency electric voltage on specified gases introduced into a vacuum space, wherein said information storage medium stores a program for being executed by said electronic computer to thereby start processing of said predetermined processing for said electric circuit on said circuit-constituting member after said plasma that has started to be generated is brought into a stable condition.
    28. An information storage medium for storing a program freely read by an electronic computer that controls a motion of a circuit-processing performing apparatus provided with a hollow plasma-generative portion defined to have an interior thereof in which plasma is generated, a hollow member-waiting portion defined to have an interior thereof operatively connected to said interior of said plasma-generative portion, and a member-transferring means for supporting thereon a processed object consisting of a circuit-constituting member while permitting said circuit-constituting member to be freely transferred to said member-waiting portion and said plasma-generative portion, said circuit-constituting member being processed by said plasma when is said circuit-constituting member is transferred from said member-waiting portion to said plasma-generative portion, wherein said information storage medium stores a program for being executed by said electronic computer thereby permitting said member-transferring means to position said circuit-constituting member in said member-waiting portion when said plasma starts to be generated in said plasma-generative portion, and to transfer said circuit-constituting member from said member-waiting portion to said plasma-generative portion when said plasma that has started to be generated is brought into a stable condition thereof.
    29. An information storage medium for storing a program freely read by an electronic computer that controls a motion of a circuit-processing performing apparatus provided with a hollow plasma-generative portion defined to have an interior thereof in which plasma is generated, a plasma generating means for generating said plasma at a predetermined position in said hollow plasma-generative portion, a member-holding means for holding said circuit-constituting member in said plasma-generative portion at a position opposing said predetermined position where said plasma is generated by said plasma generating means, and a member-coverage means for removably covering said circuit-constituting member between said predetermined position where said plasma is generated by said plasma generating means and said position where said member-holding means holds said circuit-constituting member, said circuit-processing performing apparatus processing said circuit-constituting member by said plasma, wherein said information storage medium stores a program for being executed by said electronic computer thereby permitting said member-coverage means to cover said circuit-constituting member when said plasma generating means starts to generate said plasma, and to remove covering from said circuit-constituting member when said plasma that has started to be generated by said plasma generating means is brought into a stable condition thereof.
    说明书
    [0001]CROSS-REFERENCES TO RELATED APPLICATIONS
    [0002]This application claims priority of Chinese Patent Application No. 201710882921.9, filed on Sep. 26, 2017, the entire contents of which are hereby incorporated by reference.
    [0003]FIELD OF THE INVENTION
    [0004]The present disclosure generally relates to the field of electronic device manufacturing technology and, more particularly, relates to a connecting assembly, a flexible display screen, and a flexible electronic device thereof.
    [0005]BACKGROUND
    [0006]With the development of science and technology, many new products come into being to meet various sophisticated and diversified needs. In particular, the appearance of flexible display screen has advanced the development of new electronic products. A flexible display screen can be folded to allow one to experience two types of products: a tablet and a dual-screen cell phone, thereby increasing the value of the product and improving consumers' purchase intention.
    [0007]In existing flexible display screens, the general appearance is that the middle part is curved with the two sides being flat. The shaft structures for these flexible display screens with curved middle-part and flat two-sides generally have problems. They either sacrifice the flatness of the flexible display screens to ensure the bendability of the middle parts, or sacrifice the service life to satisfy the flatness of the flexible display screens. In other words, the existing shaft structures for the flexible display screens have difficulties to balance the flatness and a long service life.
    [0008]BRIEF SUMMARY OF THE DISCLOSURE
    [0009]A first aspect of the present disclosure is a connecting assembly including a plurality of link members, a hanging-hole-shaped fixing structure having openings configured to hole the plurality of link members, a first shaft and a second shaft coupled to the plurality of link members, and a first fixing member and a second fixing member for coupling to a first display region and a second display region of the flexible display screen respectively. The first and the second fixing members are further coupled to the first shaft and the second shaft respectively. The openings of the hanging-hole-shaped fixing structure are movable to arrange the plurality of link members at different distances from each other, in order to bend the flexible display screen upon a force being exerted on the flexible display screen to cause a relative motion between the first and second display regions of the flexible display screen
    [0010]A second aspect of the present disclosure is a flexible display screen including a first display region, a second display region, and a connecting assembly. The connecting assembly includes a plurality of link members, a hanging-hole-shaped fixing structure having openings configured to hole the plurality of link members, a first shaft and a second shaft coupled to the plurality of link members, and a first fixing member and a second fixing member for coupling to a first display region and a second display region of the flexible display screen respectively. The first and the second fixing members are further coupled to the first shaft and the second shaft respectively. The openings of the hanging-hole-shaped fixing structure are movable to arrange the plurality of link members at different distances from each other, in order to bend the flexible display screen upon a force being exerted on the flexible display screen to cause a relative motion between the first and second display regions of the flexible display screen.
    [0011]A third aspect of the present disclosure is a flexible electronic device including a flexible display screen. The flexible display screen includes a first display region, a second display region, and a connecting assembly. The connecting assembly includes a plurality of link members, a hanging-hole-shaped fixing structure having openings configured to hole the plurality of link members, a first shaft and a second shaft coupled to the plurality of link members, and a first fixing member and a second fixing member for coupling to a first display region and a second display region of the flexible display screen respectively. The first and the second fixing members are further coupled to the first shaft and the second shaft respectively. The openings of the hanging-hole-shaped fixing structure are movable to arrange the plurality of link members at different distances from each other, in order to bend the flexible display screen upon a force being exerted on the flexible display screen to cause a relative motion between the first and second display regions of the flexible display screen.
    [0012]Other aspects of the present disclosure can be understood by those skilled in the art in light of the description, the claims, and the drawings of the present disclosure.
    [0013]BRIEF DESCRIPTION OF THE DRAWINGS The following drawings are merely examples for illustrative purposes according to various disclosed embodiments and are not intended to limit the scope of the present disclosure. FIG. 1 illustrates a structure schematic diagram of a connecting assembly consistent with the disclosed embodiments; FIG. 2 illustrates a schematic diagram of a hanging-hole-shaped fixing structure in a connecting assembly consistent with the disclosed embodiments; FIG. 3 illustrates another structure schematic diagram of a connecting assembly consistent with the disclosed embodiments; FIG. 4 illustrates another structure schematic diagram of a connecting assembly consistent with the disclosed embodiments; FIG. 5 illustrates a schematic diagram of a connecting assembly for a flexible display screen in a first state consistent with the disclosed embodiments; FIG. 6 illustrates a schematic diagram of a connecting assembly for a flexible display screen in a second state consistent with the disclosed embodiments; FIG. 7 illustrates a structure schematic diagram of a flexible electronic device consistent with the disclosed embodiments; FIG. 8 illustrates another structure schematic diagram of a flexible electronic device consistent with the disclosed embodiments; and FIG. 9 illustrates structure schematic diagrams of a flexible electronic device in a first state and a second state consistent with the disclosed embodiments.
    [0014]DETAILED DESCRIPTION
    [0015]Reference will now be made in detail to example embodiments of the present disclosure, which are illustrated in the accompanying drawings. Wherever possible, the same reference numbers may be used throughout the drawings to refer to the same or like parts. The described embodiments are some, but not all, of the embodiments of the present disclosure. Based on the disclosed embodiments and without inventive efforts, persons of ordinary skill in the art may derive other embodiments consistent with the present disclosure, all of which are within the scope of the present disclosure.
    [0016]FIG. 1 illustrates a structure schematic diagram of the connecting assembly consistent with the present embodiment, and FIG. 2 illustrates a structure schematic diagram of a hanging-hole-shaped fixing structure in the connecting assembly consistent with the present embodiment. As shown in FIG. 1 and FIG. 2 , the disclosed connecting assembly may include one or more shaft sets 11 (together or individually may be referred as a shaft set 11 ), a hanging-hole-shaped fixing structure, and one or more fixing assemblies 13 (together or individually may be referred as a fixing assembly 13 ).
    [0017]The hanging-hole-shaped fixing structure may be fixedly connected with the one or more shaft sets 11 to set up a middle display region of a flexible display screen (not shown). To allow the middle display region to be bendable, the hanging-hole-shaped fixing structure may include a plurality of link members 12 that are connected with the hanging-hole-shaped fixing structure by passing through openings of the hanging-hole-shaped fixing structure.
    [0018]The one or more fixing assemblies 13 may be flexibly connected with the first display region and the second display region of the flexible display screen. The first display region and the second display region are located on two sides of the middle display region. Additionally, the one or more fixing assemblies 13 may be also fixedly connected with the one or more shaft sets 11 . Relying on the shaft sets 11 connected with the fixing assemblies 13 , the first display region may be able to rotate relative to the second display region of the flexible display screen.
    [0019]As shown in FIG. 1 , in certain embodiments, a shaft set 11 may include a first shaft 14 a and a second shaft 14 b , while a fixing assembly 13 may include a first fixing member 15 a and a second fixing member 15 b . The first shaft 14 a may be in parallel with the second shaft 14 b . The first fixing member 15 a may be sleeved on one end of the first shaft 14 a , while the second fixing member 15 b may be sleeved on one end of the second shaft 14 b . The shaft set 11 may be further provided with one or more shaft sleeves 16 that are adapted to wrap the first shaft 14 a and the second shaft 14 b . When the first shaft 14 a and/or the second shaft 14 b rotate with respect to the shaft sleeve(s), torque can be generated. Additionally, the first fixing member 15 a may be fixedly connected with the first display region, while the second fixing member 15 b may be fixedly connected with the second display region.
    [0020]In certain embodiments, the shaft sleeve(s) 16 may be fixedly connected with the hanging-hole-shaped fixing structure. Accordingly, the shaft set 11 and the fixing assembly 13 may be fixed to the hanging-hole-shaped fixing structure through the shaft sleeve(s) 16 .
    [0021]In certain embodiments, in order to facilitate synchronous rotation of rotating shafts in the shaft set, the shaft set 11 may be further provided with a first synchronization structure 17 a for connecting the first shaft 14 a with the first fixing member 15 a , and a second synchronization structure 17 b for connecting the second shaft 14 b with the second fixing member 15 b . The first synchronization structure 17 a and the second synchronization structure 17 b , when working together, may allow the first shaft 14 a and the second shaft 14 b to synchronously rotate. At the same time, by fixing the first synchronization structure 17 a and the second synchronization structure 17 b to the first fixing member 15 a and the second fixing member 15 b , respectively, the first display region and the second display region may also synchronously rotate.
    [0022]In certain embodiments, the hanging-hole-shaped fixing structure may comprise at least two sets of hanging-hole structures 21 . In real applications, a set of hanging-hole structure 21 may be made by molding. Specifically, as shown in FIG. 2 , a set of hanging-hole structure 21 may include a plurality of openings. Two or more sets of hanging-hole structure 21 may be aligned so that the link members 12 can pass through the plurality of openings or holes of the corresponding two or more sets of hanging-hole structure 21 to form a plate-like structure comprising a plurality of link members 12 . For example, a plurality of link members 12 may pass through the plurality of openings of the aligned two sets of hanging-hole structure 21 to form a structure as shown in FIG. 3 , in which the two sets of hanging-hole structures 21 are fixed on the two ends of the link members 12 .
    [0023]To facilitate fixing the flexible display screen, the connecting assembly in FIG. 3 may comprise two shaft sets 11 and two fixing assemblies 13 . Each shaft set 11 and each fixing assembly 13 may correspond to one set of hanging-hole structure 21 . That is, each set of hanging-hole structure 21 may be fixedly connected with one shaft set 11 and one fixing assembly 13 , which together form the connecting assembly as shown in FIG. 3 . Further, after the first display region and the second display region of the flexible display screen are respectively fixed by the first fixing members 15 a and the second fixing members 15 b in the two fixing assemblies 13 , a structure as shown in FIG. 4 may be formed. Organized this way, the formed connecting assembly may have a single neutral plane (i.e., a conceptual plane within a beam or cantilever in which the material of the beam is not under stress, either compression or tension).
    [0024]In certain embodiments, an elastic material layer may be disposed on the hanging-hole-shaped fixing structure. Thus, the middle display region of the flexible display screen may lie on the elastic material layer. Arranged this way, when the connecting assembly bends, the elastic material layer may provide effective absorption and compensation to maintain the surface flatness of the flexible display screen. In certain embodiments, the above described elastic material may be an optical grade silica gel that will not affect the light transmissivity of the flexible display screen.
    [0025]In real applications, before fixing the flexible display screen, the fixing assembly 13 may be used to first fix a glass substrate. This may improve the surface flatness of the flexible display screen. Specifically, as shown in FIG. 4 , the first fixing member 15 a and the second fixing member 15 b may be first fixedly connected with a first glass substrate 41 a and a second glass substrate 41 b . The first display region and the second display region may then be fixed to the first glass substrate 41 a and the second glass substrate 41 b . Arranged this way, the surface flatness of the first display region and the second display region may be improved, resulting in an improved flatness of the whole flexible display screen.
    [0026]FIG. 5 illustrates a schematic diagram of the connecting assembly for a flexible display screen in a first state. FIG. 6 illustrates a schematic diagram of the connecting assembly for a flexible display screen in a second state. As shown in FIG. 5 , the first state may be a flat state, in which the two adjacent link members 12 are separated without constraint. As the flexible display screen is being bent, the gap between two adjacent link members 12 become smaller and smaller, and eventually to a minimal or even none when the bending reaches to the maximum, as shown in FIG. 6 .
    [0027]Accordingly, the disclosed embodiments provide a connecting assembly that includes a hanging-hole-shaped fixing structure disposed in the middle display region of a flexible display screen to allow the middle part of the flexible display screen to be bendable. The included hanging-hole-shaped fixing structure includes a plurality of link members 12 that are connected via a hanging-hole approach, which may help address problems existed in other approaches. For instance, if the plurality of link members 12 are connected by a welding approach, fractures may appear in the soldering area during the bending process, which then shortens the service life of the flexible display screen. Therefore, the connecting assembly disclosed in the present embodiment may improve the service life of the flexible display screen without affecting its bendability.
    [0028]In certain embodiments, a flexible display screen is provided. The flexible display screen may include a connecting assembly. Specifically, FIG. 1 illustrates a structure schematic diagram of the connecting assembly consistent with the embodiments, and FIG. 2 illustrates a structure schematic diagram of a hanging-hole-shaped fixing structure in the connecting assembly consistent with the embodiments. As shown in FIG. 1 and FIG. 2 , the disclosed connecting assembly may include one or more shaft sets 11 , a hanging-hole-shaped fixing structure, and one or more fixing assemblies 13 .
    [0029]The hanging-hole-shaped fixing structure may be fixedly connected with the one or more shaft sets 11 to set up a middle display region of a flexible display screen (not shown). To allow the middle display region to be bendable, the hanging-hole-shaped fixing structure may include a plurality of link members 12 that are connected with the hanging-hole-shaped fixing structure by passing through openings of the hanging-hole-shaped fixing structure.
    [0030]The one or more fixing assemblies 13 may be fixedly connected with the first display region and the second display region of the flexible display screen. Additionally, the one or more fixing assemblies 13 may be also fixedly connected with the one or more shaft sets 11 . Relying on the shaft sets 11 connected with the fixing assemblies 13 , the first display region may be able to rotate relative to the second display region of the flexible display screen.
    [0031]As shown in FIG. 1 , in certain embodiments, a shaft set 11 may include a first shaft 14 a and a second shaft 14 b , while a fixing assembly 13 may include a first fixing member 15 a and a second fixing member 15 b . The first shaft 14 a may be in parallel with the second shaft 14 b . The first fixing member 15 a may be sleeved on one end of the first shaft 14 a , while the second fixing member 15 b may be sleeved on one end of the second shaft 14 b . The shaft set 11 may be further provided with one or more shaft sleeves 16 that are adapted to wrap the first shaft 14 a and the second shaft 14 b . When the first shaft 14 a and/or the second shaft 14 b rotate with respect to the shaft sleeve(s), torque can be generated. Additionally, the first fixing member 15 a may be fixedly connected with the first display region, while the second fixing member 15 b may be fixedly connected with the second display region.
    [0032]In certain embodiments, the shaft sleeve(s) 16 may be fixedly connected with the hanging-hole-shaped fixing structure. Accordingly, the shaft set 11 and the fixing assembly 13 may be fixed to the hanging-hole-shaped fixing structure through the shaft sleeve(s) 16 .
    [0033]In certain embodiments, in order to facilitate synchronous rotation of rotating shafts in the shaft set, the shaft set 11 may be further provided with a first synchronization structure 17 a for connecting the first shaft 14 a with the first fixing member 15 a , and a second synchronization structure 17 b for connecting the second shaft 14 b with the second fixing member 15 b . The first synchronization structure 17 a and the second synchronization structure 17 b , when working together, may allow the first shaft 14 a and the second shaft 14 b to synchronously rotate. At the same time, by fixing the first synchronization structure 17 a and the second synchronization structure 17 b to the first fixing member 15 a and the second fixing member 15 b , respectively, the first display region and the second display region may also synchronously rotate.
    [0034]In certain embodiments, the hanging-hole-shaped fixing structure may comprise at least two sets of hanging-hole structures 21 . In real applications, a set of hanging-hole structure 21 may be made by molding. Specifically, as shown in FIG. 2 , a set of hanging-hole structure 21 may include a plurality of openings. Two or more sets of hanging-hole structure 21 may be aligned so that the link members 12 can pass through the plurality of openings or holes of the corresponding two or more sets of hanging-hole structure 21 to form a plate-like structure comprising a plurality of link members 12 . For example, a plurality of link members 12 may pass through the plurality of openings of the aligned two sets of hanging-hole structure 21 to form a structure as shown in FIG. 3 , in which the two sets of hanging-hole structures 21 are fixed on the two ends of the link members 12 .
    [0035]To facilitate fixing the flexible display screen, the connecting assembly in FIG. 3 may comprise two shaft sets 11 and two fixing assemblies 13 . Each shaft set 11 and each fixing assembly 13 may correspond to one set of hanging-hole structure 21 . That is, each set of hanging-hole structure 21 may be fixedly connected with one shaft set 11 and one fixing assembly 13 , which together form the connecting assembly as shown in FIG. 3 . Further, after the first display region and the second display region of the flexible display screen are respectively fixed by the first fixing members 15 a and the second fixing members 15 b in the two fixing assemblies 13 , a structure as shown in FIG. 4 may be formed. Organized this way, the formed connecting assembly may have a single neutral plane.
    [0036]In certain embodiments, at least a part of the first display region and/or the second display region of the flexible display screen may be disposed with a substrate (e.g., a glass substrate). The disposed substrate may improve the hardness of the first display region and/or the second display region of the flexible display screen.
    [0037]In certain embodiments, an elastic material layer may be disposed on the hanging-hole-shaped fixing structure. Thus, the middle display region of the flexible display screen may lie on the elastic material layer. Arranged this way, when the connecting assembly bends, the elastic material layer may provide effective absorption and compensation to maintain the surface flatness of the flexible display screen. In certain embodiments, the above described elastic material may be an optical grade silica gel that will not affect the light transmissivity of the flexible display screen.
    [0038]In real applications, before fixing the flexible display screen, the fixing assembly 13 may be used to first fix a glass substrate. This may improve the surface flatness of the flexible display screen. Specifically, as shown in FIG. 4 , the first fixing member 15 a and the second fixing member 15 b may be first fixedly connected with a first glass substrate 41 a and a second glass substrate 41 b . The first display region and the second display region may then be fixed to the first glass substrate 41 a and the second glass substrate 41 b . Arranged this way, the surface flatness of the first display region and the second display region may be improved, resulting in an improved flatness of the whole flexible display screen.
    [0039]FIG. 5 illustrates a schematic diagram of the connecting assembly for a flexible display screen in a first state. FIG. 6 illustrates a schematic diagram of the connecting assembly for a flexible display screen in a second state. As shown in FIG. 5 , the first state may be a flat state, in which the two adjacent link members 12 are separated without constraint. As the flexible display screen is being bent, the gap between two adjacent link members 12 become smaller and smaller, and eventually to a minimal or even none when the bending reaches to the maximum, as shown in FIG. 6 .
    [0040]Accordingly, the disclosed embodiments provide a flexible display screen that includes a hanging-hole-shaped fixing structure disposed in the middle display region of a flexible display screen to allow the middle part of the flexible display screen to be bendable. The included hanging-hole-shaped fixing structure includes a plurality of link members 12 that are connected via a hanging-hole approach, which may help address problems existed in other approaches. For instance, if the plurality of link members 12 are connected by a welding approach, fractures may appear in the soldering area during the bending process, which then shortens the service life of the flexible display screen. Therefore, the connecting assembly consistent with the embodiments may improve the service life of the flexible display screen without affecting its bendability.
    [0041]In certain embodiments, a flexible electronic device is provided. The flexible electronic device may include a flexible display screen that is set up by a connecting assembly. Specifically, FIG. 1 illustrates a structure schematic diagram of the connecting assembly consistent with the embodiments, and FIG. 2 illustrates a structure schematic diagram of a hanging-hole-shaped fixing structure in the connecting assembly consistent with the embodiments. As shown in FIG. 1 and FIG. 2 , the disclosed connecting assembly may include one or more shaft sets 11 , a hanging-hole-shaped fixing structure, and one or more fixing assemblies 13 .
    [0042]The hanging-hole-shaped fixing structure may be fixedly connected with the one or more shaft sets 11 to set up a middle display region of a flexible display screen (not shown). To allow the middle display region to be bendable, the hanging-hole-shaped fixing structure may include a plurality of link members 12 that are connected with the hanging-hole-shaped fixing structure by passing through openings of the hanging-hole-shaped fixing structure.
    [0043]The one or more fixing assemblies 13 may be fixedly connected with the first display region and the second display region of the flexible display screen. Additionally, the one or more fixing assemblies 13 may be also fixedly connected with the one or more shaft sets 11 . Relying on the shaft sets 11 connected with the fixing assemblies 13 , the first display region may be able to rotate relative to the second display region of the flexible display screen.
    [0044]As shown in FIG. 1 , in certain embodiments, a shaft set 11 may include a first shaft 14 a and a second shaft 14 b , while a fixing assembly 13 may include a first fixing member 15 a and a second fixing member 15 b . The first shaft 14 a may be in parallel with the second shaft 14 b . The first fixing member 15 a may be sleeved on one end of the first shaft 14 a , while the second fixing member 15 b may be sleeved on one end of the second shaft 14 b . The shaft set 11 may be further provided with one or more shaft sleeves 16 that are adapted to wrap the first shaft 14 a and the second shaft 14 b . When the first shaft 14 a and/or the second shaft 14 b rotate with respect to the shaft sleeve(s), torque can be generated. Additionally, the first fixing member 15 a may be fixedly connected with the first display region, while the second fixing member 15 b may be fixedly connected with the second display region.
    [0045]In certain embodiments, the shaft sleeve(s) 16 may be fixedly connected with the hanging-hole-shaped fixing structure. Accordingly, the shaft set 11 and the fixing assembly 13 may be fixed to the hanging-hole-shaped fixing structure through the shaft sleeve(s) 16 .
    [0046]In certain embodiments, in order to facilitate synchronous rotation of rotating shafts in the shaft set, the shaft set 11 may be further provided with a first synchronization structure 17 a for connecting the first shaft 14 a with the first fixing member 15 a , and a second synchronization structure 17 b for connecting the second shaft 14 b with the second fixing member 15 b . The first synchronization structure 17 a and the second synchronization structure 17 b , when working together, may allow the first shaft 14 a and the second shaft 14 b to synchronously rotate. At the same time, by fixing the first synchronization structure 17 a and the second synchronization structure 17 b to the first fixing member 15 a and the second fixing member 15 b , respectively, the first display region and the second display region may also synchronously rotate.
    [0047]In certain embodiments, the hanging-hole-shaped fixing structure may comprise at least two sets of hanging-hole structures 21 . In real applications, a set of hanging-hole structure 21 may be made by molding. Specifically, as shown in FIG. 2 , a set of hanging-hole structure 21 may include a plurality of openings. Two or more sets of hanging-hole structure 21 may be aligned so that the link members 12 can pass through the plurality of openings or holes of the corresponding two or more sets of hanging-hole structure 21 to form a plate-like structure comprising a plurality of link members 12 . For example, a plurality of link members 12 may pass through the plurality of openings of the aligned two sets of hanging-hole structure 21 to form a structure as shown in FIG. 3 , in which the two sets of hanging-hole structures 21 are fixed on the two ends of the link members 12 .
    [0048]To facilitate fixing the flexible display screen, the connecting assembly in FIG. 3 may comprise two shaft sets 11 and two fixing assemblies 13 . Each shaft set 11 and each fixing assembly 13 may correspond to one set of hanging-hole structure 21 . That is, each set of hanging-hole structure 21 may be fixedly connected with one shaft set 11 and one fixing assembly 13 , which together form the connecting assembly as shown in FIG. 3 . Further, after the first display region and the second display region of the flexible display screen are respectively fixed by the first fixing members 15 a and the second fixing members 15 b in the two fixing assemblies 13 , a structure as shown in FIG. 4 may be formed. Organized this way, the formed connecting assembly may have a single neutral plane.
    [0049]In certain embodiments, at least a part of the first display region and/or the second display region of the flexible display screen may be disposed with a substrate (e.g., a glass substrate). The disposed substrate may improve the hardness of the first display region and/or the second display region of the flexible display screen.
    [0050]In certain embodiments, an elastic material layer may be disposed on the hanging-hole-shaped fixing structure. Thus, the middle display region of the flexible display screen may lie on the elastic material layer. Arranged this way, when the connecting assembly bends, the elastic material layer may provide effective absorption and compensation to maintain the surface flatness of the flexible display screen. In certain embodiments, the above described elastic material may be an optical grade silica gel that will not affect the light transmissivity of the flexible display screen.
    [0051]In real applications, before fixing the flexible display screen, the fixing assembly 13 may be used to first fix a glass substrate. This may improve the surface flatness of the flexible display screen. Specifically, as shown in FIG. 4 , the first fixing member 15 a and the second fixing member 15 b may be first fixedly connected with a first glass substrate 41 a and a second glass substrate 41 b . The first display region and the second display region may then be fixed to the first glass substrate 41 a and the second glass substrate 41 b . Arranged this way, the surface flatness of the first display region and the second display region may be improved, resulting in an improved flatness of the whole flexible display screen.
    [0052]FIG. 5 illustrates a schematic diagram of the connecting assembly for a flexible display screen in a first state. FIG. 6 illustrates a schematic diagram of the connecting assembly for a flexible display screen in a second state. As shown in FIG. 5 , the first state may be a flat state, in which the two adjacent link members 12 are separated without constraint. As the flexible display screen is being bent, the gap between two adjacent link members 12 become smaller and smaller, and eventually to a minimal or even none when the bending reaches to the maximum, as shown in FIG. 6 .
    [0053]In certain embodiments, the flexible electronic device may include a first protective cover and one or more second protective covers. Specifically, as illustrated in FIG. 7 , the first protective cover 71 may cover the connecting assembly of the flexible display screen, while the one or more second protective covers 72 may cover components-occupying areas corresponding to the first display region and the second display region of the flexible display screen to protect these components-occupying areas. After covering the connecting assembly and the components-occupying areas with the first protective cover 71 and the one or more second protective covers 72 , a flexible electronic device as shown in FIG. 8 may be obtained.
    [0054]In certain embodiments, the first protective cover 71 may be connected with the one or more second protective covers 72 via a slidable structure 73 , to allow an adjustment of the extension of the one or more second protective covers 72 when the hanging-hole-shaped fixing structure of the flexible electronic device is being bent. Specifically, as shown in FIG. 9 , when the flexible electronic device is in the first state (i.e., the flat state), the slidable structure 73 may remain a “separated state” (i.e., the gaps between the first protective cover and the one or more second protective covers are relatively large). When the flexible electronic device is being bent, the gaps become smaller and smaller, until they reach the minimal or even none when the bending reaches the maximum (i.e., can't be further bent).
    [0055]Accordingly, the disclosed embodiments provide a flexible electronic device that includes a hanging-hole-shaped fixing structure disposed in the middle display region of a flexible display screen to allow the middle part of the flexible display screen to be bendable. The included hanging-hole-shaped fixing structure includes a plurality of link members 12 that are connected via a hanging-hole approach, which may help address problems existed in other approaches. For instance, if the plurality of link members 12 are connected by a welding approach, fractures may appear in the soldering area during the bending process, which then shortens the service life of the flexible display screen. Therefore, the connecting assembly consistent with the embodiments may improve the service life of the flexible display screen without affecting its bendability.
    [0056]Although the foregoing is a detailed description of the present disclosure with reference to specific embodiments, it should be understood that the present disclosure is not limited to the embodiments disclosed. For those skilled in the art to which the present disclosure belongs, various modifications and alterations can be made without departing from the spirit of the present disclosure as hereinafter claimed, and shall all fall within the scope of the present disclosure.
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