A modular, detachable handheld game console and computing unit based on x86 architecture.

Abstract

This invention discloses a multifunctional, modular, detachable handheld game console and computing unit based on the x86 architecture. It features high integration, with each component fulfilling its own function, achieving overall strength and a rational functional layout. The left and right controllers are detachable, employing concealed screws to effectively maintain an aesthetically pleasing appearance while facilitating disassembly and maintenance, preventing screws from falling out. Disassembly is simple and convenient, requiring only the snap-fit ​​mechanism. The outer shell is made of profile material with anodizing treatment and detailed CNC machining. While profile material is low-cost and environmentally friendly, it has lower precision and is prone to deformation. Two layers of plastic insulation separate the detachable controller / main unit outer shell modules, preventing heat transfer from the main unit to the controllers and improving the user experience.

Description

Technical Field

[0001] Specifically, this invention is a multifunctional, modular, detachable handheld game console and computing unit based on the x86 architecture, relating to the field of games. Background Technology

[0002] Currently, x86-based computers, such as laptops, are typically 10 inches or larger, while desktop computers are often even larger. The main factors limiting the development of small, high-performance x86-based computers include:

[0003] (1) Nowadays, computer chipsets have formed a relatively unified specification. Regardless of whether the chip is high-performance or low-performance, its size / interface / appearance often cannot be customized or reduced in size. Small computers often use lower-performance chipsets or smaller chipsets with simplified modules and functions. When people use portable computers (7-inch), their work efficiency and entertainment experience are poor, resulting in a low market share and poor user acceptance of this level of product.

[0004] (2) Computers using high-performance chips face greater constraints, namely higher power consumption and heat generation, requiring larger heat sinks and larger fans, and larger capacity built-in batteries to meet battery life requirements. This often points to insufficient internal space.

[0005] (3) Smaller computers, due to their greater portability, have more complex usage scenarios and require higher structural strength and durability. On the other hand, current x86 laptops often weigh around 1kg, while portable computers may be used handheld for extended periods, so the total weight should be minimized. This presents a contradiction between structural strength and weight.

[0006] (4) Traditional laptops often use a stacked design, which results in low space utilization. How to arrange modules more reasonably and optimize the structural scheme is one of the effective solutions for miniaturizing high-performance computers.

[0007] (5) There are many assembly and fixing steps and many screws, which makes it difficult to repair. Moreover, the screws are easy to lose during repair. These tiny screws are difficult to remake. The design of the external screws is not aesthetically pleasing, and the adhesive method makes them difficult to disassemble and assemble.

[0008] (6) Ordinary handheld game consoles generate a lot of heat after prolonged use, which leads to a decrease in control performance and even causes discomfort due to heat in the controller. Moreover, the internal motherboard is easily damaged when dropped. Summary of the Invention

[0009] Therefore, in order to overcome the above-mentioned shortcomings, the present invention provides a multifunctional, modular, detachable handheld game console and computing unit based on the x86 architecture.

[0010] The present invention is implemented as follows: a multifunctional, modular, detachable handheld game console and computing unit based on the x86 architecture are constructed, which includes a host module and a left and right handle modules located at the left and right ends of the host module. The left and right handle modules are detachably connected to the host module by a snap-fit ​​mechanism.

[0011] The connection ends of the left and right handle modules to the main unit module are provided with annular sealing rings.

[0012] The main unit module is provided with positioning and locking seats at both ends. The positioning and locking seats are provided with limiting slots at the four corners between the main unit module and the outer shell. Two of the limiting slots located diagonally are provided with positioning pins, and the other two limiting slots located diagonally are provided with hidden locking screws.

[0013] The left and right handle modules are provided with positioning pin holes corresponding to the positions of the positioning pins.

[0014] The left and right handle modules are provided with hidden screw holes corresponding to the positions of the hidden locking screws;

[0015] The positioning locking seat is also provided with a hidden drive locking mechanism located at the position of the hidden locking screw, and the hidden drive locking mechanism is driven to connect with the hidden locking screw.

[0016] The input end of the hidden drive locking mechanism is located inside the buckle, so that by pressing the buckle once or multiple times, the hidden drive locking mechanism can drive the hidden locking screw to rotate and move axially, thereby locking the hidden locking screw into the hidden screw hole.

[0017] Furthermore, as a preferred embodiment, the concealed drive locking mechanism includes a mounting plate, a micro drive rack, a rotating micro gear, a positioning post, a reset spring, a reversing auxiliary mechanism, a front guide member, a rear guide member, and a guide groove mechanism. The mounting plate is fixed within the positioning and locking seat. The guide groove mechanism is provided on the mounting plate. The front guide member is located at the inner end of the micro drive rack, and the rear guide member is located at the outer end of the micro drive rack. Both the front and rear guide members are guided and moved within the guide groove mechanism. The positioning post is also fixedly mounted on the mounting plate, and the positioning post is rotatable and... The rotating micro gear is axially movable and sleeved, with its front end facing the hidden screw hole. The hidden locking screw is integrally and coaxially mounted on the front end of the rotating micro gear. The rear guide is positioned close to the buckle, and the end of the micro drive rack is positioned directly opposite the buckle so that the buckle can drive the micro drive rack. The reversing position of the guide groove mechanism is provided with a reversing auxiliary mechanism to assist in guiding the front guide. A reset groove is also provided on the side of the mounting plate close to the buckle, and a reset tension spring connected to the micro drive rack is provided in the reset groove.

[0018] Furthermore, as a preferred embodiment, the guide groove mechanism includes a straight groove, a reversing groove, and a clearance groove connected in sequence. The rear guide member is always guided and moved within the straight groove, and when the front guide member is within the straight groove, the micro drive rack and the rotating micro gear are always engaged in transmission. The reversing groove extends from the end of the straight groove in a direction away from the rotating micro gear, and the clearance groove has an included angle with the straight groove. When the front guide member moves within the clearance groove, the micro drive rack and the rotating micro gear are not engaged in transmission for at least part of the time.

[0019] Furthermore, as a preferred embodiment, the reversing auxiliary mechanism is located at the connection between the straight groove and the reversing groove, and the reversing auxiliary mechanism is also provided at the connection between the avoidance groove and the straight groove. The connection between the reversing groove and the avoidance groove is an arc transition, and the inner surface of the buckle is a convex structure.

[0020] Furthermore, as a preferred embodiment, the front guide and the rear guide have the same structure, both being guide wheels or guide balls.

[0021] Furthermore, as a preferred embodiment, an elastic protective buffer post is provided between the front end of the rotating micro gear and the hidden locking screw. The reversing auxiliary mechanism includes a spring, a push slider, and an auxiliary push block. Through grooves are respectively provided between the reversing groove and the straight groove, and between the clearance groove and the straight groove. The spring is provided in the through groove, and the end of the spring is connected to the push slider that slides in the through groove. The auxiliary push block is provided on the push slider. The auxiliary push block is positioned towards the reversing groove or the straight groove, and the side of the auxiliary push block facing the annular groove or the straight groove is an arc surface to guide the front guide member.

[0022] Furthermore, as a preferred embodiment, the main unit module is provided with at least one external communication interface on its side wall, and the positioning locking seat is also provided with a control communication interface. The communication connectors on the left and right handle modules are plugged into the control communication interface. The main unit module is provided with at least a motherboard, a battery, an antenna, and a hard drive. The motherboard is provided with a fan. The antenna and hard drive are fixed on the board frame. A back frame for supporting the battery is provided on one side of the battery. A front frame is also provided on the back frame. A speaker is provided between the back frame and the front frame. Multiple control buttons are provided on both the left and right handle modules.

[0023] Furthermore, as a preferred embodiment, the left handle module and the right handle module have the same structure, both including an outer heat insulation shell and an inner heat insulation shell. The inner heat insulation shell is integrally fitted onto the inner sidewall of the outer heat insulation shell, and the end of the inner heat insulation shell protrudes from the end face of the outer heat insulation shell to form a shoulder that engages with the main unit module.

[0024] Furthermore, as a preferred embodiment, the outer shell of the main unit module is made of aluminum alloy, while the left and right handle modules are both made of plastic. The outer shell profile of the main unit module is anodized, and the details of the outer shell are CNC machined. A buffer space of 0.mm is provided between the main unit screen and other modules inside the main unit to protect the internal motherboard and provide heat insulation. The data communication method between the left and right handle modules and the main unit module is a Type-C connector to achieve waterproofing.

[0025] In addition, the present invention also provides a computer unit, characterized in that it is used in a multifunctional, modular, detachable handheld game console based on the x architecture described in the present invention.

[0026] The present invention has the following advantages: Compared with similar devices, the multifunctional, modular, detachable handheld game console and computing unit based on the x86 architecture provided by the present invention have the following advantages:

[0027] (1) The present invention describes a multi-functional, modular, detachable handheld game console and computing unit based on x86 architecture. The overall integration is high. Each part realizes its own function and takes into account the cooperation of related parts to achieve overall strength and reasonable arrangement of functions. The left and right handles are detachable. Moreover, fewer screws are required. Hidden screws are used, which can effectively ensure the appearance while facilitating disassembly and maintenance. There will be no problem of screws falling off. At the same time, disassembly is simple and convenient. Just press the buckle. It is simple and convenient.

[0028] (2) The whole machine of the present invention includes several large modules: the main body shell, the main body internal module, the main body screen module, and the main body detachable handle module. Each module has its own unique technical and structural advantages.

[0029] (3) The outer shell of the present invention is made of profile with anodizing treatment and detailed CNC machining. The profile has low cost and is more environmentally friendly, but the profile has low precision and is prone to deformation.

[0030] (4) The internal sandwich module of the main unit is clamped by two layers of plastic limiting devices, which separately isolates the space between the middle motherboard and the battery. Unlike the previous stacked metal mesh arrangement, this design has high integration and high space utilization. The internal structure is cage-like, which has advantages such as high strength, good impact resistance, and good heat insulation. The module adopts injection molding process, which has advantages such as low cost, high precision, simple production line processing, and high pass rate.

[0031] (5) The handle module is a separate module and features a high-strength, quick-release, and simple connection to the main unit. The handle module has no screws on its outer contact surface and only one seam, preventing the impact and corrosion of internal electrical components by user hand sweat and humid environments. The main modules of the device are independent of each other; that is, the main unit screen / main unit casing and the detachable handle / main unit casing modules are only related in pairs and have unique technical structures.

[0032] (6) The main unit screen and other modules have a 1.5mm buffer space through spatial and structural design, which plays a role in protecting the internal motherboard. In the event of a drop, the screen and the buffer space together form an energy-absorbing and shock-absorbing structure in that direction. On the other hand, the 1.5mm buffer space also plays a role in heat insulation, meaning that the high temperature inside the main unit will not affect the screen display or the user experience, eliminating any possibility of low-temperature burns from the screen direction.

[0033] (7) The main unit module and the handle, as well as the internal components of the main unit module, feature large-area precision fit, enhancing the overall drop and vibration resistance. This precision fit between modules allows for fewer limiting clips, fewer fixing screws, and a more rational internal heat dissipation aerodynamic layout. In terms of user experience, the product's highly integrated, high-performance, high-heat-generating internal chip effectively dissipates internal heat without significantly affecting the user experience through the metal casing. Furthermore, it offers advantages in production, repair, cleaning, and maintenance, including low disassembly difficulty and minimal risk. This innovative structure is original and leading-edge.

[0034] (8) The detachable handle / main unit shell module is isolated by two layers of plastic, preventing heat transfer from the main unit to the handle, improving the user experience, and also ensuring that dust and debris do not easily affect both sides of the main unit and the handle simultaneously. The data communication between the handle module and the main unit is via a Type-C connector, which enables waterproofing, ensuring truly independent and uninterrupted communication between the handle and the main unit. The handle is a consumable product, and its buttons and joysticks have a limited lifespan. This handle is an independent module, making it easy to replace and repair. The fixing method between the handle and the main unit can cover 2 to 4 points through fine-tuning of the structural buckles, with seamless switching between buckles and locks. This solution is a 2-point quick-release buckle. Attached Figure Description

[0035] Figure 1 This is a structural schematic diagram of the present invention from one angle;

[0036] Figure 2 This is a structural schematic diagram of the present invention from another angle;

[0037] Figure 3 This is a schematic diagram of the overall structure of the host module of the present invention;

[0038] Figure 4 This is a schematic diagram of the structure of the host module of the present invention after it has been pulled out;

[0039] Figure 5 This is a schematic diagram of the arrangement structure of the host module housing, fan, motherboard, battery, hard disk, etc. of the present invention;

[0040] Figure 6 This is a schematic diagram of the structure of the fan and mainboard of the present invention;

[0041] Figure 7 This is a structural schematic diagram of the fan, motherboard, battery, hard drive, and back frame of the present invention;

[0042] Figure 8 This is a schematic diagram of the structure of the fan, motherboard, battery, hard drive, back frame, and front frame after installation of the present invention;

[0043] Figure 9 This is a schematic diagram of the structure of the left handle module of the present invention;

[0044] Figure 10 This is a schematic diagram of the internal structure of the left handle module of the present invention;

[0045] Figure 11 This is a schematic diagram of the external structure of the host module of the present invention;

[0046] Figure 12 This is a schematic diagram of the structure of the hidden drive locking mechanism of the present invention in one of its states;

[0047] Figure 13 This is a schematic diagram of the structure of the hidden drive locking mechanism of the present invention in another state;

[0048] Figure 14 This is a schematic diagram of the connection structure of the miniature drive rack, rotating miniature gear and hidden locking screw of the present invention;

[0049] Figure 15 This is the present invention. Figure 12 Enlarged structural diagram at point A in the middle;

[0050] Figure 16 This is the present invention. Figure 12 Enlarged structural diagram at point B. Detailed Implementation

[0051] The following will be combined with the appendix Figure 1-16 This invention will be described in detail, and the technical solutions in the embodiments of this invention will be clearly and completely described. Obviously, the described embodiments are only some embodiments of this invention, and not all embodiments. Based on the embodiments of this invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of this invention.

[0052] The present invention provides a multifunctional, modular, detachable handheld game console and computing unit based on the x86 architecture, which includes a host module 1 and a left handle module 2 and a right handle module 3 located at the left and right ends of the host module. The left handle module 2 and the right handle module 3 are detachably fastened to the host module by means of a snap-fit ​​4.

[0053] The connection ends of the left handle module 2 and the right handle module 3 with the main unit module are provided with annular sealing rings 5;

[0054] The main unit module is provided with positioning and locking seats 7 at both ends. The positioning and locking seats are provided with limiting slots at the four corners between the main unit module and the outer shell 11. Two of the limiting slots located diagonally are provided with positioning pins 9, and the other two limiting slots located diagonally are provided with hidden locking screws 10.

[0055] The left handle module 2 and the right handle module 3 are provided with positioning pin holes 9 corresponding to the positions of the positioning pins;

[0056] The left handle module 2 and the right handle module 3 are provided with hidden screw holes corresponding to the positions of the hidden locking screws 10;

[0057] The positioning locking seat 7 is also provided with a hidden drive locking mechanism located at the position of the hidden locking screw 10, and the hidden drive locking mechanism is driven to connect with the hidden locking screw 10.

[0058] The input end of the hidden drive locking mechanism is located inside the buckle 4, so that by pressing the buckle once or multiple times, the hidden drive locking mechanism can drive the hidden locking screw 10 to rotate and move axially, thereby locking the hidden locking screw 10 into the hidden screw hole.

[0059] In this embodiment, the hidden drive locking mechanism includes a mounting plate 24, a micro drive rack 25, a rotating micro gear 28, a positioning post 29, a reset spring 34, a reversing auxiliary mechanism 31, a front guide member 30, a rear guide member 26, and a guide groove mechanism. The mounting plate is fixed within the positioning and locking seat. The guide groove mechanism is provided on the mounting plate. The front guide member 30 is located at the inner end of the micro drive rack 25, and the rear guide member 26 is located at the outer end of the micro drive rack 25. Both the front guide member 30 and the rear guide member are located within the guide groove mechanism for guided movement. The positioning post is also fixedly mounted on the mounting plate 24. The positioning post can... The rotating micro gear 28 is rotatably and axially movable, with its front end facing the hidden screw hole. The hidden locking screw 10 is integrally and coaxially mounted on the front end of the rotating micro gear 28. The rear guide member 26 is located near the buckle, and the end of the micro drive rack 25 is located directly opposite the buckle so that the buckle can drive the micro drive rack 25. The reversing position of the guide groove mechanism is provided with a reversing auxiliary mechanism 31 for assisting the guidance of the front guide member. A reset groove is also provided on the side of the mounting plate near the buckle, and a reset tension spring 34 connected to the micro drive rack 25 is provided in the reset groove.

[0060] The guide groove mechanism includes a straight groove 27, a reversing groove 32, and a clearance groove 33 connected in sequence. The rear guide member is always guided to move within the straight groove. When the front guide member is within the straight groove, the micro drive rack 25 and the rotating micro gear 28 are always engaged in transmission. The reversing groove extends from the end of the straight groove in a direction away from the rotating micro gear 28. The clearance groove has an included angle with the straight groove. When the front guide member moves within the clearance groove, the micro drive rack 25 and the rotating micro gear 28 are not engaged in transmission for at least part of the time.

[0061] The reversing auxiliary mechanism 31 is located at the connection between the straight groove 27 and the reversing groove 32, and the reversing auxiliary mechanism 31 is also provided at the connection between the avoidance groove 33 and the straight groove 27. The connection between the reversing groove and the avoidance groove 33 is an arc transition, and the inner side of the buckle 4 is a convex structure.

[0062] By setting a convex structure, the movement direction of the micro drive rack 25 can be controlled by adjusting the pressing buckle, thereby controlling the rotation mode of the rotating micro gear 28 to achieve the locking or loosening of the hidden locking screw. For example, due to the tension of the return spring 34, the micro drive rack 25 is initially in the position closest to the buckle and abuts against it. When the pressing buckle is pushed obliquely towards the clearance groove, the front guide component moves to the clearance groove first, and then moves to the straight groove through the reversing groove. In the straight groove, the tension of the return spring causes the rotating micro gear 28 to rotate in the opposite direction, thus loosening the screw. When the pressing buckle is pushed away from the clearance groove, the front guide component moves to the straight groove first, and then moves to the clearance groove through the reversing groove. When moving in the straight groove, the micro drive rack 25 meshes with the rotating micro gear 28, causing the rotating micro gear 28 to rotate in the forward direction, thus locking the screw. This is simple and convenient.

[0063] The front guide and the rear guide have the same structure, both being guide wheels or guide balls.

[0064] An elastic protective buffer post 35 is also provided between the front end of the rotating micro gear 28 and the hidden locking screw 10. The reversing auxiliary mechanism 31 includes a spring 31, a push slider 37 and an auxiliary push block 38. Through grooves are respectively provided between the reversing groove 32 and the straight groove, and between the clearance groove and the straight groove. The spring is provided in the through groove. The end of the spring is connected to the push slider that slides in the through groove. The auxiliary push block is provided on the push slider. The auxiliary push block is facing the reversing groove or the straight groove. The side of the auxiliary push block facing the annular groove or the straight groove is an arc surface so as to guide the front guide member.

[0065] At least one external communication interface 6 is provided on the side wall of the main unit module, and a control communication interface 8 is also provided on the positioning and locking seat 7. The communication connectors 36 on the left handle module 2 and the right handle module 3 are plugged into the control communication interface. The main unit module is provided with at least a motherboard 15, a battery 14, an antenna, and a hard disk 12. A fan 13 is provided on the motherboard. The antenna and hard disk are fixed on the board frame 16. A back frame 17 for supporting the battery is provided on one side of the battery. A front frame 18 is also provided on the back frame. A speaker is provided between the back frame and the front frame. Multiple control buttons 19 are provided on both the left handle module 2 and the right handle module 3.

[0066] The left handle module 2 and the right handle module 3 have the same structure, both including an outer heat insulation shell 20 and an inner heat insulation shell 21. The inner heat insulation shell is integrally fitted onto the inner side wall of the outer heat insulation shell, and the end of the inner heat insulation shell protrudes from the end face of the outer heat insulation shell to form a shoulder 22 that engages with the main unit module.

[0067] The main unit module's outer shell is made of aluminum alloy, while the left handle module 2 and right handle module 3 are both made of plastic. The outer shell of the main unit module is anodized, and the details of the outer shell are CNC machined. A 1.5mm buffer space is provided between the main unit's screen and other modules inside the main unit to protect the internal motherboard and provide heat insulation. The left handle module 2 and right handle module 3 communicate with the main unit module via a Type-C connector to achieve waterproofing.

[0068] In addition, the present invention also provides a computer unit, characterized in that it is used in a multifunctional, modular, detachable handheld game console based on the x86 architecture described in the present invention.

[0069] The above description shows and illustrates the basic principles, main features, and advantages of the present invention. Standard parts used in the present invention can be purchased from the market, and irregular parts can be customized according to the description and drawings. The specific connection methods of each part adopt conventional methods such as bolts, rivets, and welding that are mature in the prior art. The machinery, parts, and equipment adopt conventional models in the prior art, and the circuit connection adopts conventional connection methods in the prior art, which will not be described in detail here.

[0070] The above description of the disclosed embodiments enables those skilled in the art to make or use the invention. Various modifications to these embodiments will be readily apparent to those skilled in the art, and the general principles defined herein may be implemented in other embodiments without departing from the spirit or scope of the invention. Therefore, the invention is not to be limited to the embodiments shown herein, but is to be accorded the widest scope consistent with the principles and novel features disclosed herein.

Claims

1. A multi-functional, modular, detachable handheld game console based on the x86 architecture, comprising a main unit module and left and right gamepad modules located at the left and right ends of the main unit module, characterized in that, Both the left and right handle modules are connected to the main unit module via snap-fit ​​fastening. The connection points between the left and right handle modules and the main unit module are equipped with annular sealing rings. The main unit module has positioning and locking seats at both ends. There are limit slots at the four corners between the positioning and locking seats and the outer shell of the main unit module. Two of the limit slots on the diagonal side are equipped with positioning pins, and the other two limit slots on the diagonal side are equipped with hidden locking screws. Positioning pin holes are provided on the left and right handle modules at the positions corresponding to the positioning pins; Hidden screw holes are provided on the left and right handle modules at the positions corresponding to the hidden locking screws; The positioning locking seat is equipped with a hidden drive locking mechanism located in the position of the hidden locking screw, and the hidden drive locking mechanism is driven to connect with the hidden locking screw. The input end of the hidden drive locking mechanism is located inside the buckle, so that by pressing the buckle once or multiple times, the hidden drive locking mechanism can drive the hidden locking screw to rotate and move axially, thereby locking the hidden locking screw into the hidden screw hole. The concealed drive locking mechanism includes a mounting plate, a micro drive rack, a rotating micro gear, a positioning post, a reset spring, a reversing auxiliary mechanism, a front guide, a rear guide, and a guide groove mechanism. The mounting plate is fixed within the positioning and locking seat. The mounting plate has a guide groove mechanism. The inner end of the micro drive rack has a front guide, and the outer end has a rear guide. Both the front and rear guides are located within the guide groove mechanism for guidance and movement. A positioning post is also fixedly mounted on the mounting plate. A rotating micro gear is rotatably and axially mounted on the positioning post. The front end of the rotating micro gear faces the concealed screw hole, and a concealed locking screw is integrally and coaxially mounted on the front end of the rotating micro gear. The rear guide is positioned close to the latch, and the end of the micro drive rack faces the latch, allowing the latch to drive the micro drive rack. A reversing auxiliary mechanism is provided at the reversing position of the guide groove mechanism to assist in guiding the front guide. A reset groove is also provided on the side of the mounting plate near the latch, and a reset spring connected to the micro drive rack is located within the reset groove. The guide slot mechanism includes a straight slot, a reversing slot, and a clearance slot connected in sequence. The rear guide member is always located in the straight slot for guiding movement, and when the front guide member is located in the straight slot, the micro drive rack and the rotating micro gear are always meshed and transmitting power. The reversing slot extends at the end of the straight slot in a direction away from the rotating micro gear, and the clearance slot has an included angle with the straight slot. When the front guide member is located in the clearance slot, the micro drive rack and the rotating micro gear are not meshed and transmitting power for at least part of the time.

2. The multi-functional, modular, detachable handheld game console based on x86 architecture according to claim 1, characterized in that: The reversing auxiliary mechanism is located at the connection between the straight groove and the reversing groove, and a reversing auxiliary mechanism is also provided at the connection between the clearance groove and the straight groove. The connection between the reversing groove and the clearance groove is an arc transition, and the inner side of the buckle is a convex structure.

3. A multi-functional, modular, detachable handheld game console based on an x86 architecture as described in any one of claims 1-2, characterized in that: The front and rear guide components have the same structure, both consisting of guide wheels or guide balls.

4. The multifunctional, modular, detachable handheld game console based on x86 architecture according to claim 3, characterized in that: An elastic protective buffer post is also provided between the front end of the rotating micro gear and the hidden locking screw. The reversing auxiliary mechanism includes a spring, a push slider and an auxiliary push block. Through slots are provided between the reversing slot and the straight slot, and between the clearance slot and the straight slot. A spring is provided in the through slot. The end of the spring is connected to a push slider that slides in the through slot. An auxiliary push block is provided on the push slider. The auxiliary push block is set towards the reversing slot or the straight slot. The side of the auxiliary push block facing the reversing slot or the straight slot is an arc surface to guide the front guide component.

5. A multi-functional, modular, detachable handheld game console based on x86 architecture as described in claim 3, characterized in that: The main unit module has at least one external communication interface on its side wall, and a control communication interface is also provided on the positioning and locking seat. The communication connectors on the left and right handle modules are plugged into the control communication interface. The main unit module contains at least a motherboard, a battery, an antenna, and a hard drive. A fan is provided on the motherboard. The antenna and hard drive are fixed on the board frame. A back frame for supporting the battery is provided on one side of the battery. A front frame is also provided on the back frame. A speaker is provided between the back frame and the front frame. Multiple control buttons are provided on both the left and right handle modules.

6. A multi-functional, modular, detachable handheld game console based on x86 architecture as described in claim 5, characterized in that: The left and right handle modules have the same structure, both including an outer insulation shell and an inner insulation shell. The inner insulation shell is integrally fitted onto the inner side wall of the outer insulation shell, and the end of the inner insulation shell protrudes from the end face of the outer insulation shell to form a shoulder that engages with the main unit module.

7. A multi-functional, modular, detachable handheld game console based on x86 architecture as described in claim 5, characterized in that: The main unit's casing is made of aluminum alloy, while the left and right handle modules are made of plastic. The casing of the main unit is anodized, and the details of the casing are CNC machined. There is a 1.5mm buffer space between the main unit's screen and other modules inside the main unit to protect the internal motherboard and provide heat insulation. The left and right handle modules communicate with the main unit via a Type-C connector to enable waterproofing.

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