A reinforced notebook heat dissipation protection structure based on keyboard flow guide groove

Abstract

This invention belongs to the field of ruggedized laptop technology, specifically a ruggedized laptop heat dissipation and protection structure based on a keyboard airflow channel. Addressing the issue that simply providing an additional heat dissipation channel is insufficient to effectively utilize the potential liquid flow within the channel for enhanced heat dissipation, resulting in limited improvement in cooling performance and a passive approach, this invention proposes the following solution: a laptop chassis with a display screen mounted on it. The disclosed ruggedized laptop heat dissipation and protection structure based on a keyboard airflow channel utilizes "airflow fluid" to enhance heat dissipation. When "airflow fluid" is present in the main airflow channel, the device can actively intercept the flow, allowing the fluid to contact the heat sink fins, thereby providing instantaneous enhanced liquid cooling and rapidly eliminating heat peaks generated by high loads on the components, thus improving the device's performance.

Description

Technical Field

[0001] This invention relates to the field of ruggedized laptop technology, and in particular to a ruggedized laptop heat dissipation and protection structure based on a keyboard airflow channel. Background Technology

[0002] Rugged laptops are specially designed for stable operation in harsh environments. Unlike ordinary consumer laptops that pursue thinness and style, their design philosophy prioritizes reliability, durability and environmental adaptability, enabling them to perform critical tasks in harsh scenarios such as outdoor surveying, military field operations, industrial manufacturing, and emergency rescue.

[0003] The keyboard drainage channel is a "liquid guidance and drainage" system embedded in the bottom of the computer keyboard or the casing below it during the manufacturing process of the computer. It is an extremely practical, efficient and discreet safety design. It provides reliable protection for the delicate hardware inside the computer by planning the liquid path in the structure, rather than simply relying on an external membrane for isolation.

[0004] Existing ruggedized laptops primarily rely on airflow for heat dissipation. The design of the airflow channels only provides additional heat dissipation channels and cannot effectively utilize the water flow that may appear inside the channels to enhance heat dissipation. As a result, it does not significantly improve heat dissipation and is a passive solution, making it difficult to actively utilize the water flow, leading to poor performance. Summary of the Invention

[0005] This invention discloses a reinforced laptop heat dissipation protection structure based on a keyboard airflow channel, aiming to solve the technical problem in the background art where only an additional heat dissipation channel is provided for the airflow channel, making it difficult to effectively utilize the water flow that may appear inside the airflow channel to enhance heat dissipation, resulting in little improvement in heat dissipation and a passive cooperation.

[0006] This invention proposes a reinforced laptop heat dissipation and protection structure based on a keyboard airflow channel, comprising:

[0007] The laptop body has a display screen body, which has two limiting blocks and a fastener.

[0008] Two limiting holes are provided on the laptop body, and the laptop body is also equipped with a touch screen;

[0009] Two boss blocks are provided on the laptop body, and the laptop body has a flow guide mounting cavity and a card interface;

[0010] A flow-guiding enhancement unit is disposed inside the flow-guiding installation cavity. The flow-guiding enhancement unit includes multiple water-absorbing expansion rings and two main flow-guiding chambers. The multiple water-absorbing expansion rings are respectively located inside the two main flow-guiding chambers.

[0011] The latching and locking module is mounted on two protruding blocks and includes a lifting push plate and a locking baffle.

[0012] In a preferred embodiment, the flow enhancement unit further includes:

[0013] A flow guide plate is disposed inside the flow guide mounting cavity. The flow guide plate has multiple keyboard shaft holes, and two main flow guide compartments are located on both sides of the flow guide plate.

[0014] Two interconnected water chambers are provided on the flow guide plate. Multiple flow guide tubes are provided on the two interconnected water chambers. Multiple flow guide holes are opened on the multiple flow guide tubes. The multiple flow guide tubes are all located inside the flow guide plate.

[0015] In a preferred embodiment, the flow enhancement unit further includes:

[0016] Two delivery pumps are respectively installed on two interconnected water chambers. The output ends of the two delivery pumps are equipped with connecting pipes, and the output ends of the two connecting pipes are respectively connected to the interior of the two main guide tanks.

[0017] Two grating plates are respectively installed on the two main diversion troughs;

[0018] Two sealing ports are provided, both of which are located on the laptop body, and each of the two sealing ports is equipped with a movable seal.

[0019] In a preferred embodiment, the flow enhancement unit further includes:

[0020] Two drain pipes are respectively installed on two main guide tanks, and the output ends of the two drain pipes are respectively connected to the interior of two sealed movable ports.

[0021] Two heat-conducting components are respectively disposed on two main flow-guiding compartments. Each heat-conducting component is provided with a heat dissipation guide plate. Each heat-conducting component is also provided with multiple slot fins, which are located inside the two main flow-guiding compartments.

[0022] In a preferred embodiment, the flow enhancement unit further includes:

[0023] Two mounting frames are respectively set on two main diversion tanks, and each of the two mounting frames is provided with a gasket;

[0024] Two telescopic sleeves are respectively set on two mounting frames, and multiple water-absorbing expansion rings are respectively set on the two telescopic sleeves. The outer walls of the multiple water-absorbing expansion rings are respectively in contact with the outer walls of the multiple groove fins.

[0025] In a preferred embodiment, the flow enhancement unit further includes:

[0026] Multiple soft baffles are respectively set on two expansion sleeve layers, and the multiple soft baffles and multiple water-absorbing expansion rings are alternately distributed;

[0027] Two telescopic springs are respectively installed inside the two telescopic sleeve layers;

[0028] Multiple mounting shafts are located inside the flow guide mounting cavity, and each mounting shaft is equipped with a guide wheel.

[0029] In a preferred embodiment, the flow enhancement unit further includes:

[0030] Two stepper motors are installed inside the flow guide mounting cavity, and the output shafts of the two stepper motors are connected to a shrink reel via a coupling.

[0031] Two connecting wire harnesses are respectively set on two shrink reels. The outer walls of the two connecting wire harnesses are in contact with the inner walls of multiple guide rollers and the inner walls of two washer rings. One end of each of the two connecting wire harnesses is set on one inner wall of the two telescopic sleeves.

[0032] In a preferred embodiment, the fastening locking module further includes:

[0033] The mounting plate base is set on two protruding blocks. The mounting plate base has an inner guide cavity, a baffle guide opening and two cylindrical slots. The locking baffle is set inside the baffle guide opening and the inner guide cavity is connected to the baffle guide opening.

[0034] Two retraction spring rods are respectively disposed inside two cylindrical slots. One end of each of the two retraction spring rods is provided with a connecting plate, and both connecting plates are disposed on a locking baffle.

[0035] In a preferred embodiment, the fastening locking module further includes:

[0036] A linear lead screw is mounted on a mounting plate and passes through an inner guide cavity. The lifting push plate is mounted on the linear lead screw, and the outer wall of the lifting push plate contacts the outer wall of the locking baffle.

[0037] Adjustment knob, which is located at one end of the linear lead screw.

[0038] In a preferred embodiment, the fastening locking module further includes:

[0039] A threaded through hole is provided on the mounting plate base, and the threaded through hole is connected to the interior of the baffle guide.

[0040] A spiral rod is disposed inside a threaded through hole, and one end of the spiral rod is provided with an abutment plate, which contacts the outer wall of the locking baffle.

[0041] As can be seen from the above, the reinforced laptop heat dissipation protection structure based on the keyboard guide channel provided by the present invention has the function of enhancing heat dissipation by utilizing "guide fluid". When there is "guide fluid" in the main guide channel, the device can actively intercept the "guide fluid" so that the fluid can contact the fins, thereby instantly enhancing liquid cooling of the heat dissipation fins, quickly eliminating the heat peak generated by the machine components due to high load, thereby improving the performance of the device. Attached Figure Description

[0042] Figure 1 This is a schematic diagram of the overall structure of a reinforced laptop heat dissipation and protection structure based on a keyboard airflow channel proposed in this invention.

[0043] Figure 2 This is a top view schematic diagram of the overall structure of a reinforced laptop heat dissipation and protection structure based on a keyboard airflow channel proposed in this invention.

[0044] Figure 3 This is a schematic diagram of the airflow enhancement unit structure of a reinforced laptop heat dissipation protection structure based on a keyboard airflow channel proposed in this invention;

[0045] Figure 4 This is a schematic diagram of the combined structure of the airflow guide plate and the main airflow guide slot of a reinforced laptop heat dissipation and protection structure based on the keyboard airflow guide slot proposed in this invention;

[0046] Figure 5 This is a schematic diagram of a reinforced laptop heat dissipation and protection structure based on a keyboard airflow channel, proposed in this invention, which utilizes a combination of a water chamber and a heat dissipation conductive plate.

[0047] Figure 6 This is a schematic diagram of the water absorption expansion ring and telescopic sleeve disassembly structure of a reinforced laptop heat dissipation protection structure based on a keyboard airflow channel proposed in this invention.

[0048] Figure 7 This is a schematic diagram of the disassembled structure of the telescopic sleeve and telescopic spring of a reinforced laptop heat dissipation and protection structure based on a keyboard airflow channel proposed in this invention.

[0049] Figure 8 This is a schematic diagram of the snap-locking module structure of a reinforced laptop heat dissipation protection structure based on a keyboard airflow channel proposed in this invention;

[0050] Figure 9 This is a cross-sectional view of the mounting plate base for a reinforced laptop heat dissipation and protection structure based on a keyboard airflow channel proposed in this invention.

[0051] Figure 10 This is a schematic diagram of the spiral rod and threaded through hole of a reinforced laptop heat dissipation protection structure based on a keyboard airflow channel proposed in this invention.

[0052] In the diagram: 1. Notebook chassis; 2. Flow enhancement unit; 201. Flow guide tray; 202. Keyboard shaft hole; 203. Sealing port; 204. Movable seal; 205. Grille plate; 206. Main flow guide compartment; 207. Drain pipe; 208. Flow guide hole; 209. Flow guide tube; 210. Shrink reel; 211. Stepper motor; 212. Mounting shaft; 213. Connecting water chamber; 214. Heat dissipation guide plate; 215. Delivery pump; 216. Connecting pipe; 217. Guide wheel; 218. Water absorption expansion ring; 219. Soft partition; 220. Inner fins; 221. Telescopic sleeve; 222. Heat conduction. Components; 223, Washer ring; 224, Mounting frame; 225, Connecting wire harness; 226, Telescopic spring; 3, Limiting block; 4, Buckle; 5, Display body; 6, Limiting hole; 7, Boss block; 8, Snap-fit ​​locking module; 801, Mounting plate base; 802, Locking baffle; 803, Adjusting knob; 804, Contraction spring rod; 805, Connecting plate; 806, Linear lead screw; 807, Lifting push plate; 808, Inner guide cavity; 809, Baffle guide port; 810, Cylindrical groove; 811, Threaded through hole; 812, Abutment plate; 813, Helical screw; 9, Touch screen; 10, Flow guide mounting cavity; 11, Snap-fit ​​interface. Detailed Implementation

[0053] The technical solutions of the present invention will be clearly and completely described below with reference to the accompanying drawings of the embodiments of the present invention. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments.

[0054] The invention discloses a reinforced laptop heat dissipation protection structure based on a keyboard airflow channel. It is mainly used in scenarios where the airflow channel only provides an additional heat dissipation channel, and it is difficult to effectively utilize the water flow that may appear inside the airflow channel to enhance heat dissipation. As a result, it does not play a significant role in enhancing heat dissipation and is a passive approach.

[0055] Reference Figures 1-10 A ruggedized laptop heat dissipation and protection structure based on keyboard airflow channels, comprising:

[0056] The laptop body 1 has a display screen body 5, two limiting blocks 3 are provided on the display screen body 5, and a fastener 4 is also provided on the display screen body 5.

[0057] Two limiting holes 6 are provided on the laptop body 1, and a touch screen 9 is also provided on the laptop body 1.

[0058] Two protrusion blocks 7 are provided on the notebook body 1. The notebook body 1 has a flow guide installation cavity 10 and a card interface 11.

[0059] The flow enhancement unit 2 is disposed inside the flow installation cavity 10. The flow enhancement unit 2 includes multiple water absorption expansion rings 218 and two main flow guide chambers 206. The multiple water absorption expansion rings 218 are respectively located inside the two main flow guide chambers 206.

[0060] The latching and locking module 8 is disposed on two protrusion blocks 7. The latching and locking module 8 includes a lifting push plate 807 and a locking baffle 802.

[0061] Reference Figures 1-7 In a preferred embodiment, the flow-enhancing unit 2 further includes:

[0062] The flow guide plate 201 is disposed inside the flow guide mounting cavity 10. The flow guide plate 201 has multiple keyboard shaft holes 202, and two main flow guide compartments 206 are located on both sides of the flow guide plate 201.

[0063] Two interconnected water chambers 213 are provided on the flow guide plate 201. Multiple flow guide tubes 209 are provided on the two interconnected water chambers 213. Multiple flow guide holes 208 are opened on the multiple flow guide tubes 209. The multiple flow guide tubes 209 are all located inside the flow guide plate 201.

[0064] In this invention, the flow-guiding enhancement unit 2 further includes:

[0065] Two delivery pumps 215 are respectively installed on two interconnected water chambers 213. The output ends of the two delivery pumps 215 are provided with connecting pipes 216, and the output ends of the two connecting pipes 216 are respectively connected to the interior of the two main guide tanks 206.

[0066] Two grating plates 205 are respectively installed on two main flow guide troughs 206;

[0067] Two sealing ports 203 are provided on the notebook body 1, and each of the two sealing ports 203 has a movable seal 204 inside.

[0068] In this invention, the flow-guiding enhancement unit 2 further includes:

[0069] Two drain pipes 207 are respectively installed on two main guide tanks 206, and the output ends of the two drain pipes 207 are respectively connected to the interior of two sealed movable ports 203.

[0070] Two heat-conducting components 222 are respectively disposed on two main flow-guiding chambers 206. Each heat-conducting component 222 is provided with a heat dissipation guide plate 214. Each heat-conducting component 222 is also provided with multiple in-slot fins 220, which are located inside the two main flow-guiding chambers 206.

[0071] In this invention, the flow-guiding enhancement unit 2 further includes:

[0072] Two mounting frames 224 are respectively set on two main diversion tanks 206, and each mounting frame 224 is provided with a gasket 223;

[0073] Two telescopic sleeves 221 are respectively disposed on two mounting frames 224, and multiple water-absorbing expansion rings 218 are respectively disposed on the two telescopic sleeves 221. The outer walls of the multiple water-absorbing expansion rings 218 are respectively in contact with the outer walls of the multiple groove fins 220.

[0074] In this invention, the flow-guiding enhancement unit 2 further includes:

[0075] Multiple soft partitions 219 are respectively disposed on two telescopic sleeves 221, and the multiple soft partitions 219 and multiple water-absorbing expansion rings 218 are alternately distributed;

[0076] Two telescopic springs 226 are respectively disposed inside the two telescopic sleeves 221;

[0077] Multiple mounting shafts 212 are provided inside the flow guide mounting cavity 10, and each mounting shaft 212 is provided with a guide wheel 217.

[0078] In this invention, the flow-guiding enhancement unit 2 further includes:

[0079] Two stepper motors 211 are installed inside the flow guide mounting cavity 10, and the output shafts of the two stepper motors 211 are connected to the shrink reel 210 via a coupling.

[0080] Two connecting wire harnesses 225 are respectively disposed on two shrink reels 210. The outer walls of the two connecting wire harnesses 225 are in contact with the inner walls of multiple guide rollers 217, and the outer walls of the two connecting wire harnesses 225 are in contact with the inner walls of two washer rings 223. One end of the two connecting wire harnesses 225 is respectively disposed on one side of the inner wall of two telescopic sleeves 221.

[0081] Specifically, during the flow guidance process, when the fluid seeps into the keyboard gap, it flows into the flow guidance tray 201. At this time, the delivery pump 215 runs. The delivery pump 215 draws in the fluid through the flow guide tube 209 and the flow guide hole 208 opened on it, and delivers it to the main flow guidance tank 206 through the connecting pipe 216, so that the water absorption expansion ring 218 absorbs the fluid and expands, and then contacts the fins 220 in the tank. At this time, the heat transferred from the heat dissipation guide plate 214 and the heat conduction component 222 will be absorbed by the liquid inside the water absorption expansion ring 218, thereby performing active instantaneous enhanced liquid cooling to complete the flow guidance heat dissipation enhancement.

[0082] After the heat dissipation is enhanced, the stepper motor 211 runs, driving the shrink reel 210 to rotate, so that the shrink reel 210 tightens the connecting wire harness 225, thereby causing the telescopic spring 226 to contract and deform, which in turn causes the telescopic sleeve 221 and the water absorption expansion ring 218 to contract, so that the soft partition 219, in conjunction with the telescopic sleeve 221, squeezes the water absorption expansion ring 218 to quickly discharge the fluid. Then the movable seal 204 moves, so that the drain pipe 207 discharges the flow inside the main flow tank 206.

[0083] In specific application scenarios, the flow enhancement unit 2 is suitable for reinforcing the flow guidance of a laptop. When there is "flow guidance liquid" in the main flow guidance compartment 206, the flow enhancement unit 2 can actively intercept and accumulate the "flow guidance liquid" through the water absorption expansion ring 218, so that the water absorption expansion ring 218 containing fluid can contact the fins. This utilizes the high specific heat capacity of the liquid to instantly enhance liquid cooling of the heat dissipation fins, quickly eliminating the heat peak generated by the components of the machine under high load, and enhancing the heat dissipation effect of the reinforced laptop.

[0084] It should be noted that during the flow diversion process, the flow diversion tube 209 and the delivery pump 215 can actively guide the fluid in the flow diversion tray 201, avoiding large areas of fluid stagnation inside the machine body, thereby preventing the keyboard area of ​​the machine body from being damp.

[0085] The grating plate 205 can prevent dust from entering the main flow channel 206 during use, reducing the entry of dust and other impurities. At the same time, the grating plate 205 is detachable and can be cleaned and removed as needed.

[0086] During drainage, the soft baffle 219 can work in conjunction with the expansion and contraction of the telescopic sleeve 221 to squeeze the water-absorbing expansion ring 218 to quickly discharge the fluid.

[0087] Reference Figure 1 , Figure 8 , Figure 9 and Figure 10 In a preferred embodiment, the fastening locking module 8 further includes:

[0088] Mounting plate base 801 is set on two boss blocks 7. Mounting plate base 801 has an inner guide cavity 808, a baffle guide opening 809 and two cylindrical slots 810. Locking baffle 802 is set inside the baffle guide opening 809. The inner guide cavity 808 is connected to the baffle guide opening 809.

[0089] Two retraction spring rods 804 are respectively disposed inside two cylindrical slots 810. One end of each retraction spring rod 804 is provided with a connecting plate 805, and both connecting plates 805 are disposed on the locking baffle 802.

[0090] In this invention, the fastening and locking module 8 further includes:

[0091] A linear screw 806 is mounted on a mounting plate base 801 and passes through an inner guide cavity 808. A lifting push plate 807 is mounted on the linear screw 806 and the outer wall of the lifting push plate 807 contacts the outer wall of the locking baffle 802.

[0092] Adjustment knob 803 is located at one end of linear lead screw 806.

[0093] In this invention, the fastening and locking module 8 further includes:

[0094] A threaded through hole 811 is provided on the mounting plate base 801, and the threaded through hole 811 is connected to the interior of the baffle guide 809.

[0095] The spiral rod 813 is located inside the threaded through hole 811. One end of the spiral rod 813 is provided with an abutment plate 812, which contacts the outer wall of the locking baffle 802.

[0096] Specifically, during the fastening process, the buckle 4 engages with the buckle interface 11. Then, according to the transportation strength requirements, the adjustment knob 803 is rotated, causing the adjustment knob 803 to drive the linear screw 806 to rotate, which in turn drives the lifting push plate 807 to move. As the lifting push plate 807 moves, it can compress the locking baffle 802, causing the contraction spring rod 804 to deform and the locking baffle 802 to rise, thereby locking and blocking the buckle 4. Then, the spiral rod 813 is adjusted, causing the spiral rod 813 to drive the abutment plate 812 to move, so that the abutment plate 812 abuts against the locking baffle 802 for further locking, until the transportation operation is completed.

[0097] In specific application scenarios, the snap-locking module 8 is suitable for the closing link of the display body 5. That is, after the display body 5 is snapped in, the snap-locking module 8 can lock the buckle 4 a second time to adapt to different transportation intensity scenarios, improve the snap-locking stability of the display body 5, and thus ensure that the screen can remain stably closed when subjected to external force interference, prevent the screen from being popped open instantly, and avoid pulling and damaging the fragile hinge and internal ribbon cable.

[0098] It should be noted that when used in scenarios with low transportation intensity, only a single snap-fit ​​is required. The snap-fit ​​locking module 8 mainly serves a protective function to improve applicability in the face of different transportation intensities.

[0099] The secondary locking mechanism also employs a double locking setup to reduce the loosening effect caused by vibrations during long-term transportation.

[0100] Working principle:

[0101] During the flow guidance process, when the fluid seeps into the keyboard gap, it flows into the flow guidance tray 201. At this time, the delivery pump 215 runs. The delivery pump 215 draws in the fluid through the flow guidance tube 209 and the flow guidance hole 208 opened on it, and delivers it to the main flow guidance tank 206 through the connecting pipe 216, so that the water absorption expansion ring 218 absorbs the fluid and expands, and then contacts the fins 220 in the tank. At this time, the heat transferred from the heat dissipation guide plate 214 and the heat conduction component 222 will be absorbed by the liquid inside the water absorption expansion ring 218, thereby performing active instantaneous enhanced liquid cooling to complete the flow guidance heat dissipation enhancement.

[0102] After the heat dissipation is enhanced, the stepper motor 211 runs, driving the shrink reel 210 to rotate, so that the shrink reel 210 tightens the connecting wire harness 225, thereby causing the telescopic spring 226 to contract and deform, which in turn causes the telescopic sleeve 221 and the water absorption expansion ring 218 to contract, so that the soft partition 219, in conjunction with the telescopic sleeve 221, squeezes the water absorption expansion ring 218 to quickly discharge the fluid. Then the movable seal 204 moves, so that the drain pipe 207 discharges the flow inside the main flow tank 206.

[0103] During fastening, the buckle 4 engages with the buckle interface 11. Then, according to the transportation strength requirements, the adjustment knob 803 is rotated, causing the adjustment knob 803 to drive the linear screw 806 to rotate, which in turn drives the lifting push plate 807 to move. As the lifting push plate 807 moves, it can compress the locking baffle 802, causing the contraction spring 804 to deform and the locking baffle 802 to rise, thereby locking and blocking the buckle 4. Then, the spiral rod 813 is adjusted, causing the spiral rod 813 to drive the abutment plate 812 to move, so that the abutment plate 812 abuts against the locking baffle 802 for further locking, until the transportation operation is completed.

[0104] The above description is only a preferred embodiment of the present invention, but the scope of protection of the present invention is not limited thereto. Any equivalent substitutions or modifications made by those skilled in the art within the scope of the technology disclosed in the present invention, based on the technical solution and inventive concept of the present invention, should be covered within the scope of protection of the present invention.

Claims

1. A reinforced laptop heat dissipation and protection structure based on a keyboard airflow channel, characterized in that, include: The laptop body (1) is provided with a display screen body (5), the display screen body (5) is provided with two limiting blocks (3), and the display screen body (5) is also provided with a fastener (4). Two limiting holes (6) are provided on the notebook body (1), and the notebook body (1) is also provided with a touch screen (9). Two bosses (7) are provided on the notebook body (1), and the notebook body (1) is provided with a flow guide installation cavity (10) and a card interface (11). The flow enhancement unit (2) is located inside the flow installation cavity (10). The flow enhancement unit (2) includes multiple water absorption expansion rings (218) and two main flow channels (206). The multiple water absorption expansion rings (218) are located inside the two main flow channels (206). The latching and locking module (8) is disposed on two protrusion blocks (7). The latching and locking module (8) includes a lifting push plate (807) and a locking baffle (802). Two heat-conducting components (222) are respectively disposed on two main flow channel chambers (206). Each heat-conducting component (222) is provided with a heat dissipation guide plate (214). Each heat-conducting component (222) is also provided with multiple slot fins (220). The multiple slot fins (220) are respectively located inside the two main flow channel chambers (206).

2. The reinforced notebook heat dissipation protection structure based on keyboard flow guide groove according to claim 1, characterized in that, The flow-guiding enhancement unit (2) further includes: The flow guide plate (201) is located inside the flow guide mounting cavity (10). The flow guide plate (201) has multiple keyboard shaft holes (202) and two main flow guide compartments (206) are located on both sides of the flow guide plate (201). Two interconnected water chambers (213) are provided on the flow guide plate (201). Multiple flow guide tubes (209) are provided on the two interconnected water chambers (213). Multiple flow guide holes (208) are opened on the multiple flow guide tubes (209). The multiple flow guide tubes (209) are located inside the flow guide plate (201).

3. The reinforced notebook heat dissipation protection structure based on keyboard flow guide groove according to claim 2, characterized in that, The flow-guiding enhancement unit (2) further includes: Two delivery pumps (215) are respectively installed on two interconnected water chambers (213). The output ends of the two delivery pumps (215) are provided with connecting pipes (216). The output ends of the two connecting pipes (216) are respectively connected to the interior of the two main guide tanks (206). Two grating plates (205) are respectively installed on two main diversion troughs (206); Two sealing ports (203) are provided on the notebook body (1), and each of the two sealing ports (203) is provided with a movable seal (204).

4. The reinforced notebook heat dissipation protection structure based on keyboard flow guide groove according to claim 3, characterized in that, The flow-guiding enhancement unit (2) further includes: Two drain pipes (207) are respectively installed on two main guide tanks (206), and the output ends of the two drain pipes (207) are respectively connected to the interior of two sealed movable ports (203).

5. The reinforced notebook heat dissipation protection structure based on keyboard flow guide groove according to claim 4, characterized in that, The flow-guiding enhancement unit (2) further includes: Two mounting frames (224) are respectively set on two main diversion tanks (206), and each of the two mounting frames (224) is provided with a gasket (223). Two telescopic sleeves (221) are respectively disposed on two mounting frames (224), and multiple water-absorbing expansion rings (218) are respectively disposed on the two telescopic sleeves (221). The outer walls of the multiple water-absorbing expansion rings (218) are respectively in contact with the outer walls of the multiple groove fins (220).

6. The reinforced notebook heat dissipation protection structure based on keyboard flow guide groove according to claim 5, characterized in that, The flow-guiding enhancement unit (2) further includes: Multiple soft partitions (219) are respectively disposed on two expansion sleeves (221), and the multiple soft partitions (219) and multiple water-absorbing expansion rings (218) are alternately distributed; Two telescopic springs (226) are respectively disposed inside the two telescopic sleeves (221); Multiple mounting shafts (212) are provided inside the flow guide mounting cavity (10), and guide wheel components (217) are provided on each of the multiple mounting shafts (212).

7. The reinforced notebook heat dissipation protection structure based on keyboard flow guide groove according to claim 6, characterized in that, The flow-guiding enhancement unit (2) further includes: Two stepper motors (211) are installed inside the flow guide mounting cavity (10), and the output shafts of the two stepper motors (211) are connected to a shrink reel (210) via a coupling. Two connecting wire harnesses (225) are respectively disposed on two shrink reels (210). The outer walls of the two connecting wire harnesses (225) are in contact with the inner walls of multiple guide rollers (217) respectively. The outer walls of the two connecting wire harnesses (225) are in contact with the inner walls of two gaskets (223) respectively. One end of the two connecting wire harnesses (225) is respectively disposed on one side inner wall of two telescopic sleeves (221).

8. The reinforced notebook thermal management protection structure based on keyboard louvers of claim 1, wherein, The fastening and locking module (8) also includes: Mounting plate base (801) is set on two boss blocks (7). Mounting plate base (801) is provided with an inner guide cavity (808), a baffle guide opening (809) and two cylindrical slots (810). The locking baffle (802) is set inside the baffle guide opening (809). The inner guide cavity (808) is connected to the baffle guide opening (809). Two retraction spring rods (804) are respectively disposed inside two cylindrical slots (810). One end of each of the two retraction spring rods (804) is provided with a connecting plate (805), and the two connecting plates (805) are both disposed on the locking baffle (802).

9. The reinforced notebook heat dissipation protection structure based on keyboard flow guide groove according to claim 8, characterized in that, The fastening and locking module (8) also includes: A linear lead screw (806) is mounted on a mounting plate base (801). The linear lead screw (806) passes through an inner guide cavity (808). The lifting push plate (807) is mounted on the linear lead screw (806). The outer wall of the lifting push plate (807) is in contact with the outer wall of the locking baffle (802). Adjustment knob (803) is located at one end of linear lead screw (806).

10. The reinforced notebook heat dissipation protection structure based on keyboard flow guide grooves according to claim 9, characterized in that, The fastening and locking module (8) also includes: A threaded through hole (811) is provided on the mounting plate base (801), and the threaded through hole (811) is connected to the interior of the baffle guide (809); A spiral rod (813) is provided inside the threaded through hole (811). One end of the spiral rod (813) is provided with an abutment plate (812), which contacts the outer wall of the locking baffle (802).

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