Ice hockey helmet mask

Abstract

The invention discloses an ice hockey helmet mask, and relates to the technical field of protective masks, the ice hockey helmet mask comprises a protective frame, a framework convex end of the protective frame is fixedly connected with a fixed mounting point, and under the cooperation of a lens assembly and a helmet body assembly, an elastic clamping piece drives a clamping point groove to penetrate through the interior of a penetrating elastic clamping frame, so that the clamping point groove and a clamping plug point are preliminarily clamped; then, the central end of the clamping plug point is in fastening threaded connection through a fastening screw outside the wearable helmet body, meanwhile, the magnetic clamping piece penetrates through the clamping groove to form magnetic connection with the magnetic connecting piece, it is ensured that the lens assembly is firmly installed on the helmet body assembly, and the lens assembly can be firmly installed on the helmet body assembly while the overall connection firmness is effectively ensured; the anti-fog helmet mask can be operated without complex tools, an athlete can conveniently replace the lens or maintain the helmet mask according to requirements, the use convenience and flexibility are improved, the anti-fog requirements under different exercise intensities and environment conditions are effectively met, and the visual effect and safety of the helmet mask in actual use are improved.

Description

Technical Field

[0001] The invention relates to the technical field of protective masks, in particular to an ice hockey helmet mask. Background Art

[0002] More and more ice sports are attracting people's attention, among which ice hockey is particularly popular. More and more people are participating in ice hockey training and competitions. Participating in ice hockey requires a complete set of equipment, among which masks as facial protection equipment are even more indispensable.

[0003] At present, during the use of ice hockey helmet masks, the mask lenses of athletes are easily soiled by sweat, exhaled water vapor, ice chips, dust, etc., and as the use time increases, the lenses will be scratched and worn. The lenses in conventional helmet masks are mostly fixed in the mask frame. This tight fixed structure makes it difficult to reach all corners when cleaning the lenses. At the same time, the lenses of some helmet masks are glued to the frame with glue. When replacing, it is necessary to carefully remove the old glue and re-paste the new lenses. This process not only easily damages the lenses or frames, but also makes them easily debonded after being eroded by sweat for a long time, causing the lenses to fall off, which is easy to cause danger to people during the exercise process. Therefore, it is necessary to propose an ice hockey helmet mask. Summary of the invention

[0004] The object of the present invention is to provide an ice hockey helmet mask to solve the problem proposed in the above background technology that during the use of the ice hockey helmet mask, the mask lenses of the athletes are easily soiled by sweat, exhaled water vapor, ice chips, dust, etc., and as the use time increases, the lenses will be scratched and worn. The lenses in conventional helmet masks are mostly fixedly installed in the mask frame. This tight fixing structure makes it difficult to reach all corners when cleaning the lenses. At the same time, the lenses of some helmet masks are glued to the frame by glue. When replacing, it is necessary to carefully remove the old glue and re-paste the new lenses. This process not only easily damages the lenses or the frame, but also makes it easy to cause degumming after being eroded by sweat for a long time, resulting in the lenses falling off, which is easy to cause danger to people in the exercise process.

[0005] To achieve the above object, the present invention provides the following technical solution: an ice hockey helmet mask, comprising a protective frame, a convex end of the protective frame is fastened with a fixed installation point, a side end of the fixed installation point is fastened with a helmet body assembly, and a lens assembly is installed at the front eye portion of the helmet body assembly;

[0006] The lens assembly includes a front flexible arc frame, and elastic clips are integrally formed at the left and right ends of the front flexible arc frame. An elastic adjustment gap exists between the elastic clip and the front flexible arc frame, and a plugging point is fastened to the side end of the elastic clip. An auricle flexible memory metal arc rod is integrally formed at the side end of the front flexible arc frame, and a force unloading arc frame is integrally formed at the side end of the auricle flexible memory metal arc rod. A magnetic clip is installed at the side end of the auricle flexible memory metal arc rod. The helmet body assembly includes a wearable helmet body, and magnetic connectors are symmetrically installed at the ear contour edge frame of the wearable helmet body. The magnetic connector passes through the card slot and the magnetic connector to form a magnetic connection, and an anti-fog heating lens is integrally formed at the bottom of the front flexible arc frame.

[0007] Preferably, capacitive sweat detection sensors are installed on both ends of the wearable helmet body, a microprocessor controller is installed on the top of the wearable helmet body, a heating wire point is installed on the front surface of the front flexible arc frame, and a signal control connection is formed between the microprocessor controller and the heating control element inside the heating wire point and the built-in temperature sensor.

[0008] Preferably, an air guide cavity is provided on the top rear side of the wearable helmet body, magnetic connectors are symmetrically installed at the ear contour edge frame of the wearable helmet body, a flexible sweat-absorbing adhesive tape is installed on the inner wall of the bottom end of the wearable helmet body, and card slots are provided on the left and right side surfaces of the wearable helmet body.

[0009] Preferably, an elastic protrusion frame is fastened to the inner wall surface of the wearing helmet body, an interlaced elastic clamp frame is installed inside the elastic protrusion frame, a card point groove is opened on the inner wall surface of the wearing helmet body, and the elastic clamp drives the card point groove to form an interlaced connection from the inside of the interlaced elastic clamp frame, so that the card point groove and the plugging point form a card-fitting connection and the center end of the plugging point is thread-fastened by a fastening screw on the outside of the wearing helmet body.

[0010] Preferably, a protective buffer component is installed inside the back side of the wearable helmet body, and an adjusting component is installed outside the protective buffer component. The adjusting component is located inside the wearable helmet body to form a movable connection.

[0011] Preferably, the adjustment component includes a flexible stacking layer, the side end of the flexible stacking layer is fastened to the inner wall surface of the wearable helmet body, the top of the flexible stacking layer is integrally formed with a head guard shell, the side end of the head guard shell is plugged with a rotating short shaft, and the side end of the rotating short shaft is installed with a micro drive motor.

[0012] Preferably, after the capacitive sweat detection sensor detects the presence of sweat on the head of a person, it sends feedback data to the microprocessor controller, and the microprocessor controller sends new control instructions to the micro drive motor, so that the micro drive motor drives the head shield to rotate and unfold from the inside of the wearable helmet body under the contraction and cooperation of the flexible stacking layer by rotating the short shaft.

[0013] Preferably, the protective buffer assembly includes a light hard protective frame, the inner wall of which is attached with an inner lining, and the left and right sides of the light hard protective frame are penetrated with fixed slots, and the fixed slots, the card point slots and the plugging points are arranged on the same axis, and are used to penetrate the plugging points through fastening screws to form a connection with the fixed slots, wherein a soft gasket is installed on the side of the fixed slots, and a filling belt is arranged around the interior of the light hard protective frame, and the interior of the filling belt is filled with titanium dioxide nanoparticles, and a socket slot is opened on the surface of the light hard protective frame, and the rotating short shaft drives the head protective shell to rotate through the socket slot, and a heat dissipation end is penetrated on the surface of the light hard protective frame.

[0014] Preferably, the bottom of the wearable helmet body is fastened with a mandibular elastic band, the mandibular elastic band and the bottom frame of the protective frame form a mounting connection, and the dorsal end of the mandibular elastic band is installed with an attachment connector.

[0015] Preferably, a sweat-absorbing belt is fastened to the bottom of the flexible superimposed layer, and a micro axial flow fan is installed at the connecting end of the sweat-absorbing belt and the flexible superimposed layer.

[0016] Compared with the prior art, the present invention has the following beneficial effects:

[0017] 1. In the present invention, under the cooperation of the lens assembly and the helmet body assembly, before the user starts exercising, the elastic clamp drives the clamping point slot to penetrate the inside of the interlaced elastic clamp frame, so that the clamping point slot and the plugging point are initially engaged, and then the central end of the plugging point is fastened and threadedly connected by a fastening screw on the outside of the worn helmet body, and at the same time, the magnetic clamp passes through the clamping slot to form a magnetic connection with the magnetic connector, thereby ensuring the firmness and reliability of the connection. If there is any looseness or damage, it can be adjusted or replaced in time. At the same time, the flexible sweat-absorbing adhesive tape can be replaced as needed to ensure its sweat-absorbing performance. The overall effective connection can be ensured without complex tools, so that athletes can replace lenses or maintain helmet masks as needed, thereby improving the convenience and flexibility of use, and effectively adapting to the anti-fog requirements under different exercise intensities and environmental conditions, improving the visual effect and safety of the helmet mask in actual use, and reducing the potential threat to athletes' health due to lens contamination and bacterial growth.

[0018] 2. In the present invention, by cooperating with the adjustment component and the protective buffer component, during exercise, if the head is hit, the impact force first acts on the protective buffer component. At this time, the light hard protective frame bears the main impact force, and the titanium dioxide nanoparticles in the filling belt inside it can absorb and disperse part of the energy through their own physical properties (such as friction and deformation of tiny particles). The lining further buffers the impact on the head and reduces damage to the head. At the same time, the heat dissipation end helps to dissipate the heat due to impact or the human head, maintaining a more suitable temperature environment inside the helmet. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 It is a schematic diagram of the structure of the main view of an ice hockey helmet mask of the present invention;

[0020] Figure 2 It is a schematic structural diagram of a side view of an ice hockey helmet mask of the present invention;

[0021] Figure 3 It is a schematic diagram of the separation structure of the main body in the face mask of an ice hockey helmet of the present invention;

[0022] Figure 4 It is a structural schematic diagram of a lens assembly in an ice hockey helmet mask of the present invention;

[0023] Figure 5 It is a structural schematic diagram of a helmet body assembly in an ice hockey helmet mask of the present invention;

[0024] Figure 6 A kind of ice hockey helmet mask of the present invention Figure 5 A schematic diagram of the enlarged structure at point A;

[0025] Figure 7 The present invention is a schematic structural diagram of an adjustment component and a protective buffer component in an ice hockey helmet mask.

[0026] In the figure: 1. Protective frame; 2. Lens assembly; 21. Front flexible arc frame; 22. Heating wire point; 23. Elastic adjustment gap; 24. Elastic clamp; 25. Jam point; 26. Auricular flexible memory metal arc rod; 27. Unloading arc frame; 28. Anti-fog heated lens; 29. ​​Magnetic clamp; 3. Fixed installation point; 4. Attachment connector; 5. Mandibular elastic strap; 6. Helmet assembly; 61. Wearing helmet; 62. Capacitive sweat detection sensor; 63. Microprocessor controller ; 64. Magnetic connector; 65. Air guide cavity groove; 66. Flexible sweat-absorbent adhesive tape; 67. Card slot; 68. Elastic protrusion frame; 69. Interlaced elastic card frame; 690. Card point slot; 7. Adjustment component; 71. Flexible superposition layer; 72. Micro drive motor; 73. Rotating short shaft; 74. Head guard shell; 8. Sweat-absorbent belt; 9. Protective buffer component; 91. Light hard protective frame; 92. Lining; 93. Fixed slot hole; 94. Filling belt; 95. Heat dissipation end; 96. Socket slot. DETAILED DESCRIPTION

[0027] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the implementation regulations described are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0028] Embodiment 1: In the present invention, referring to Figure 1 - Figure 6 As shown: an ice hockey helmet mask, including a protective frame 1, the protective frame 1 is provided with a plurality of frame types according to the human face, so as to form a covering operation for the face, the frame convex end of the protective frame 1 is fastened with a fixed installation point 3, the side end of the fixed installation point 3 is fastened with a helmet body component 6, and the front end of the helmet body component 6 is provided with a lens component 2;

[0029] The lens assembly 2 includes a front flexible arc frame 21, and elastic clips 24 are integrally formed at the left and right ends of the front flexible arc frame 21. An elastic adjustment gap 23 exists between the elastic clip 24 and the front flexible arc frame 21. The side end of the elastic clip 24 is fastened with a plug point 25. The side end of the front flexible arc frame 21 is integrally formed with an auricle flexible memory metal arc rod 26, and the side end of the auricle flexible memory metal arc rod 26 is integrally formed with a force unloading arc frame 27. The side end of the auricle flexible memory metal arc rod 26 is installed with a magnetic snap-fitting piece 29. The helmet body assembly 6 includes a wearing helmet body 61. A magnetic connector 64 is symmetrically installed at the edge frame of the ear contour of the wearing helmet body 61. The magnetic snap-fitting piece 29 passes through the card slot 67 and forms a magnetic connection with the magnetic connector 64. The bottom of the front flexible arc frame 21 is integrally formed with an anti-fog heating lens 28.

[0030] The surface of the anti-fog heated lens 28 is coated with a nano-composite coating with self-cleaning and antibacterial functions, the bottom of the nano-composite coating is coated with an anti-fog coating, and a silver ion antibacterial layer is added inside the anti-fog heated lens 28 to inhibit the growth and reproduction of bacteria, viruses and other microorganisms on the lens surface.

[0031] Capacitive sweat detection sensors 62 are installed on both ends of the wearable helmet body 61, a microprocessor controller 63 is installed on the top of the wearable helmet body 61, a heating wire point 22 is installed on the front surface of the front flexible arc frame 21, and the microprocessor controller 63 and the heating control element inside the heating wire point 22 and the built-in temperature sensor form a signal control connection.

[0032] A wind guide cavity 65 is provided on the top rear side of the wearing helmet body 61, a magnetic connector 64 is symmetrically installed at the ear contour edge frame of the wearing helmet body 61, a flexible sweat-absorbing adhesive tape 66 is installed on the inner wall of the bottom end of the wearing helmet body 61, and a card slot 67 is provided on the left and right side surfaces of the wearing helmet body 61.

[0033] The inner wall surface of the wearing helmet body 61 is fastened with an elastic protrusion frame 68, and an elastic clamp frame 69 is installed inside the elastic protrusion frame 68. A card point groove 690 is opened on the inner wall surface of the wearing helmet body 61. The elastic clamp 24 drives the card point groove 690 to form an insertion from the inside of the inserted elastic clamp frame 69, so that the card point groove 690 and the plugging point 25 form a card-fitting connection and the center end of the plugging point 25 is thread-fastened by a fastening screw on the outside of the wearing helmet body 61.

[0034] In a specific solution, a protective frame 1 of a suitable model is selected according to the facial features of the user to ensure that it can comfortably cover the face, and then the lens assembly 2 is assembled with the helmet body assembly 6, and then the elastic clamp 24 drives the clamping point slot 690 to be inserted from the inside of the elastic clamp 69, so that the clamping point slot 690 and the plugging point 25 are initially engaged, and then the central end of the plugging point 25 is fastened and threadedly connected by a fastening screw on the outside of the wearing helmet body 61, and at the same time, the magnetic clamp 29 is passed through the clamping slot 67 to form a magnetic connection with the magnetic connecting member 64, ensuring that the lens assembly 2 is firmly installed on the helmet body assembly 6, and then the user puts on the wearing helmet body 61, at this time, the flexible sweat-absorbing adhesive The tear strip 66 contacts the user's head and initially absorbs a small amount of sweat. Secondly, the elastic protrusion frame 68 provides cushioning and fit support to make the helmet more comfortable to wear. When the user starts to exercise, the capacitive sweat detection sensor 62 monitors the sweating of the head in real time. Once the sweating amount reaches a preset threshold, the capacitive sweat detection sensor 62 transmits a signal to the microprocessor controller 63. After receiving the signal, the microprocessor controller 63 sends an instruction to the heating control element inside the heating wire point 22 according to a preset program to start the heating wire point 22 to heat the anti-fog heating lens 28. During the heating process, the built-in temperature sensor monitors the lens temperature in real time and feeds the data back to the microprocessor. The controller 63, the microprocessor controller 63 dynamically adjusts the heating power according to the temperature data, so that the temperature of the anti-fog heating lens 28 is maintained within the range that can effectively prevent the generation of fog, that is, higher than the dew point temperature. At the same time, air can enter the interior of the helmet through the air guide cavity 65 to play a role in ventilation and heat dissipation, taking away some heat and moisture, and further helping to keep the lens clear and the head comfortable. After the exercise, take off the helmet. Since the surface of the anti-fog heating lens 28 is coated with a nano-composite coating with self-cleaning and antibacterial functions, the surface of the lens can be simply rinsed or wiped with clean water. The nano-composite coating can effectively remove stains and inhibit bacterial growth, and the lens cleaning work can be completed conveniently and quickly. The status of the connecting parts such as the elastic clip 24 and the magnetic clip 29 is checked regularly to ensure the firmness and reliability of the connection. If there is any looseness or damage, it is adjusted or replaced in time. At the same time, the flexible sweat-absorbing adhesive tape 66 can be replaced as needed to ensure its sweat-absorbing performance. The overall effective connection can be ensured without complicated tools, which is convenient for athletes to replace lenses or maintain helmet masks as needed, improves the convenience and flexibility of use, and effectively adapts to the anti-fog requirements under different sports intensities and environmental conditions, improves the visual effect and safety of the helmet mask in actual use, and reduces the potential threat to athletes' health due to lens contamination and bacterial growth.

[0035] Embodiment 2: In the present invention, according to Figure 1 , Figure 2 , Figure 3 and Figure 7As shown, a protective buffer component 9 is installed inside the back side of the wearing helmet body 61, and an adjusting component 7 is installed outside the protective buffer component 9. The adjusting component 7 is located inside the wearing helmet body 61 to form a movable connection.

[0036] The adjustment component 7 includes a flexible stacking layer 71, the side end of the flexible stacking layer 71 is tightly connected to the inner wall surface of the wearable helmet body 61, the top of the flexible stacking layer 71 is integrally formed with a head protective shell 74, the side end of the head protective shell 74 is plugged with a rotating short shaft 73, and the side end of the rotating short shaft 73 is installed with a micro drive motor 72.

[0037] After the capacitive sweat detection sensor 62 detects sweat on the head of a person, it sends feedback data to the microprocessor controller 63, and the microprocessor controller 63 sends a new control instruction to the micro drive motor 72, so that the micro drive motor 72 drives the head shield 74 to rotate and unfold from the inside of the wearable helmet body 61 under the contraction and cooperation of the flexible stacking layer 71 by rotating the short shaft 73.

[0038] In a specific solution, before the athlete puts on the helmet and starts exercising, the head shell 74 of the adjustment component 7 is in a state of being stored inside the helmet body 61, and is wrapped and fixed by the flexible stacking layer 71. Then, the feedback data of the capacitive sweat detection sensor 62 is sent to the microprocessor controller 63, so that after receiving the data, the microprocessor controller 63 generates a new control instruction according to the preset program logic, and sends the instruction to the micro drive motor 72, so that the micro drive motor 72 starts to start after receiving the instruction, and its output shaft drives the rotating short shaft 73 to rotate. The rotation of the rotating short shaft 73 drives the head shell 74 to start rotating with its connection point with the rotating short shaft 73 as the axis. In this process, the flexible stacking layer 71, due to its own flexibility and scalability, gradually unfolds and releases the part of the head shell 74 wrapped by it as the head shell 74 rotates, so that the head shell 74 can be gradually rotated out from the inside of the helmet body 61 and unfolded to the required opening and closing angle.

[0039] Embodiment 3: In the present invention, according to Figure 3 and Figure 7As shown, the protective buffer component 9 includes a light hard protective frame 91, the inner wall of the light hard protective frame 91 is attached with an inner lining 92, and the left and right sides of the light hard protective frame 91 are penetrated with fixed slots 93, the fixed slots 93, the card point slots 690 and the card point 25 are set on the same axis, and are used to penetrate the card point 25 through the fastening screws to form a connection with the fixed slots 93, wherein a soft gasket is installed on the side of the fixed slot 93, a filling belt 94 is arranged around the inside of the light hard protective frame 91, and the inside of the filling belt 94 is filled with titanium dioxide nanoparticles, a socket slot 96 is opened on the surface of the light hard protective frame 91, and the rotating short shaft 73 drives the head protective shell 74 to rotate through the socket slot 96, and a heat dissipation end 95 is penetrated on the surface of the light hard protective frame 91.

[0040] The bottom of the wearable helmet body 61 is fastened with a mandibular elastic band 5, and the mandibular elastic band 5 and the bottom frame of the protective frame 1 form a mounting connection, and the dorsal end of the mandibular elastic band 5 is installed with an attachment connector 4.

[0041] The bottom of the flexible superimposed layer 71 is fastened with a sweat-absorbent belt 8 , and a micro axial flow fan is installed at the connection end between the sweat-absorbent belt 8 and the flexible superimposed layer 71 .

[0042] In a specific solution, before use, the protective buffer component 9 is installed inside the dorsal end of the wearable helmet body 61. When the lens component 2 is assembled with the helmet body component 6, the fixing slot 93, the card point slot 690 and the card point 25 are on the same axis. Then, the fastening screws are passed through the card point 25 and the fixing slot 93 in sequence and fixed. At this time, the soft gasket plays a buffering and protective role to prevent damage to the components and the user during the screw tightening process. Then, the mandibular elastic band 5 is connected to the bottom of the wearable helmet body 61 and the bottom frame of the protective frame 1, and it is ensured that the attached connector 4 is in a normal state. After that, when the athlete wears the helmet, the mandibular elastic band 5 is adjusted to a suitable tightness so that the helmet can be stably worn on the head. When the athlete starts exercising, the capacitive sweat detection sensor 62 continuously monitors the sweating of the head. Once the sweating amount reaches a preset threshold, it transmits a signal to the microprocessor controller 63. The microprocessor controller 63 The processing controller 63 sends an instruction to the micro-drive motor 72, and the micro-drive motor 72 drives the head shield 74 to rotate and unfold from the inside of the wearable helmet body 61 through the jack slot 96 by rotating the short shaft 73. At the same time, the micro-axial flow fan at the bottom of the flexible stacking layer 71 is started, and the air is formed to flow in cooperation with the air guide cavity slot 65, and the acceleration sweat absorption belt 8 is used to improve the sweat absorption efficiency and ensure the dryness and comfort of the head. During exercise, if the head is hit, the impact force first acts on the protective buffer component 9. At this time, the light hard protective frame 91 bears the main impact force. The titanium dioxide nanoparticles in the filling belt 94 inside it can absorb and disperse part of the energy through their own physical properties (such as friction and deformation of tiny particles). The lining 92 further buffers the impact on the head and reduces damage to the head. At the same time, the heat dissipation end 95 helps to dissipate the heat due to the impact or the human head, and maintain a more suitable temperature environment inside the helmet.

[0043] The wiring diagram of the capacitive sweat detection sensor 62, microprocessor controller 63 and temperature sensor in the present invention is common knowledge in the art, and its working principle is a well-known technology. The model is selected according to the actual use, so the control method and wiring arrangement of the capacitive sweat detection sensor 62, microprocessor controller 63 and temperature sensor are no longer explained in detail.

[0044] The method of use and working principle of the device are as follows: first, install the protective buffer component 9 to the inside of the back side end of the wearable helmet body 61, and when assembling the lens component 2 and the helmet body component 6, make the fixing slot 93, the card point slot 690 and the card point 25 on the same axis, and then use the fastening screws to pass through the card point 25 and the fixing slot 93 in turn and fix them. At this time, the soft gasket plays a buffering and protective role to prevent damage to the components and users during the screw tightening process, and let the magnetic snap-fitting part 29 pass through the card slot 67 to form a magnetic connection with the magnetic connecting part 64 to ensure that the lens component 2 is firmly installed on the helmet body component 6, and then connect the mandibular elastic strap 5 to the bottom of the wearable helmet body 61 and the bottom frame of the protective frame 1, and ensure that the attached connecting part 4 is in a normal state, and at the same time When the protective frame 1 is installed at the front end of the wearable helmet body 61 through the fixed installation point 3, the protective frame 1 of a suitable type can be selected according to the facial features of the user to ensure that it can comfortably cover the face. Then the user puts on the wearable helmet body 61. At this time, the flexible sweat-absorbing adhesive tape 66 contacts the user's head and initially absorbs a small amount of sweat. Secondly, the elastic raised frame 68 provides buffering and fitting support to make the helmet more comfortable to wear. When the user starts to exercise, the capacitive sweat detection sensor 62 monitors the sweating of the head in real time. Once it is detected that the sweating amount reaches a preset threshold, the capacitive sweat detection sensor 62 transmits a signal to the microprocessor controller 63. After receiving the signal, the microprocessor controller 63 sends an instruction to the heating control element inside the heating wire point 22 according to a preset program. The heating wire point 22 is started to heat the anti-fog heating lens 28. During the heating process, the built-in temperature sensor monitors the lens temperature in real time and feeds back the data to the microprocessor controller 63. The microprocessor controller 63 dynamically adjusts the heating power according to the temperature data to keep the temperature of the anti-fog heating lens 28 within the range that can effectively prevent the generation of fog, that is, higher than the dew point temperature. At the same time, air can enter the interior of the helmet through the air guide cavity 65 to play a role in ventilation and heat dissipation, taking away some heat and moisture, and further helping to keep the lens clear and the head comfortable. After the exercise, take off the helmet. Since the surface of the anti-fog heating lens 28 is coated with a nano-composite coating with self-cleaning and antibacterial functions, the lens surface can be simply rinsed or wiped with clean water. The nano-composite coating can have The invention can effectively remove stains and inhibit the growth of bacteria, and complete the lens cleaning work conveniently and quickly. The elastic clamp 24, the magnetic clamp 29 and other connecting parts are regularly checked to ensure the connection firmness and reliability. If there is any looseness or damage, it is timely adjusted or replaced. At the same time, the flexible sweat-absorbing adhesive tape 66 can be replaced as needed to ensure its sweat-absorbing performance. The overall effective connection can be ensured without complicated tools, so that athletes can replace lenses or maintain helmet masks according to their needs, which improves the convenience and flexibility of use, and effectively adapts to the anti-fog requirements under different sports intensities and environmental conditions, improves the visual effect and safety of helmet masks in actual use, and reduces the potential threat to athletes' health due to lens contamination and bacterial growth.And according to the feedback data of the above-mentioned capacitive sweat detection sensor 62, it is sent to the microprocessor controller 63, so that after receiving the data, the microprocessor controller 63 generates a new control instruction according to the preset program logic, and sends the instruction to the micro drive motor 72, so that the micro drive motor 72 starts to start after receiving the instruction, and its output shaft drives the rotating short shaft 73 to rotate, and the rotation of the rotating short shaft 73 drives the head protective shell 74 to start rotating with its connection point with the rotating short shaft 73 as the axis. In this process, the flexible superimposed layer 71 gradually unfolds and releases the part of the head protective shell 74 wrapped by it as the head protective shell 74 rotates due to its own flexibility and scalability, so that the head protective shell 74 can be gradually rotated out from the inside of the wearable helmet body 61 And unfold to the required opening and closing angle, then the micro axial flow fan at the bottom of the flexible superimposed layer 71 is started, and the air is formed to flow in cooperation with the air guide cavity 65, and the accelerated sweat absorption belt 8 is used to improve the sweat absorption efficiency and ensure the dryness and comfort of the head. During exercise, if the head is hit, the impact force first acts on the protective buffer component 9. At this time, the light hard protective frame 91 bears the main impact force. The titanium dioxide nanoparticles in the filling belt 94 inside it can absorb and disperse part of the energy through their own physical properties (such as friction and deformation of tiny particles). The lining 92 further buffers the impact on the head and reduces the damage to the head. At the same time, the heat dissipation end 95 helps to dissipate the heat dissipated by the impact or the human head, and maintain a more suitable temperature environment inside the helmet.

[0045] Although the present invention has been described in detail with reference to the aforementioned embodiments, it is still possible for those skilled in the art to modify the technical solutions described in the aforementioned embodiments, or to make equivalent substitutions for some of the technical features therein. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims

1. An ice hockey helmet mask, characterized in that: It comprises a protective frame (1), wherein a convex end of the frame of the protective frame (1) is fastened to a fixed installation point (3), a side end of the fixed installation point (3) is fastened to a helmet body component (6), and a lens component (2) is mounted at the front eye portion of the helmet body component (6); The lens assembly (2) comprises a front flexible arc frame (21), the left and right ends of the front flexible arc frame (21) are integrally formed with elastic clamps (24), an elastic adjustment gap (23) exists between the elastic clamps (24) and the front flexible arc frame (21), a plugging point (25) is fastened to the side end of the elastic clamps (24), an auricle flexible memory metal arc rod (26) is integrally formed at the side end of the front flexible arc frame (21), and the side end of the auricle flexible memory metal arc rod (26) is The end of the helmet is integrally formed with a force-relieving arc frame (27); the side end of the auricle flexible memory metal arc rod (26) is installed with a magnetic clamping piece (29); the helmet body assembly (6) comprises a wearable helmet body (61); a magnetic connecting piece (64) is symmetrically installed at the edge frame of the ear contour of the wearable helmet body (61); the magnetic clamping piece (29) passes through the card slot (67) and the magnetic connecting piece (64) to form a magnetic connection; the bottom of the front flexible arc frame (21) is integrally formed with an anti-fog heating lens (28).

2. The ice hockey helmet mask according to claim 1, characterized in that: Capacitive sweat detection sensors (62) are installed at both left and right ends of the wearable helmet body (61), a microprocessor controller (63) is installed on the top of the wearable helmet body (61), a heating wire point (22) is installed on the front surface of the front flexible arc frame (21), and the microprocessor controller (63) forms a signal control connection with the heating control element and the built-in temperature sensor inside the heating wire point (22).

3. The ice hockey helmet mask according to claim 2, characterized in that: The top rear side of the wearable helmet body (61) is provided with an air guide cavity groove (65), the bottom inner wall of the wearable helmet body (61) is provided with a flexible sweat-absorbing adhesive tape (66), and the left and right side surfaces of the wearable helmet body (61) are provided with card slots (67).

4. The ice hockey helmet mask according to claim 1, characterized in that: The inner wall surface of the wearing helmet body (61) is fastened with an elastic protrusion frame (68), an interlaced elastic clamp frame (69) is installed inside the elastic protrusion frame (68), and a clamping point groove (690) is opened on the inner wall surface of the wearing helmet body (61). The elastic clamp (24) drives the clamping point groove (690) to be inserted from the inside of the interlaced elastic clamp frame (69), so that the clamping point groove (690) and the plugging point (25) form a clamping connection, and the central end of the plugging point (25) is fastened by a fastening screw on the outside of the wearing helmet body (61).

5. The ice hockey helmet mask according to claim 2, characterized in that: A protective buffer component (9) is installed inside the back side of the wearable helmet body (61), and an adjustment component (7) is installed outside the protective buffer component (9). The adjustment component (7) is located inside the wearable helmet body (61) to form a movable connection.

6. The ice hockey helmet mask according to claim 5, characterized in that: The adjustment component (7) comprises a flexible superimposed layer (71), the side end of the flexible superimposed layer (71) is tightly connected to the inner wall surface of the wearable helmet body (61), the top end of the flexible superimposed layer (71) is integrally formed with a head protection shell (74), the side end of the head protection shell (74) is plugged with a rotating short shaft (73), and the side end of the rotating short shaft (73) is installed with a micro drive motor (72).

7. The ice hockey helmet mask according to claim 6, characterized in that: After the capacitive sweat detection sensor (62) detects sweat on the head of a person, it sends feedback data to the microprocessor controller (63), and the microprocessor controller (63) sends a new control instruction to the micro drive motor (72), so that the micro drive motor (72) drives the head protective shell (74) to rotate and unfold from the inside of the wearable helmet body (61) under the contraction and matching of the flexible superimposed layer (71) by rotating the short shaft (73).

8. The ice hockey helmet mask according to claim 5, characterized in that: The protective buffer component (9) comprises a light hard protective frame (91), the inner wall of which is attached an inner lining (92), the left and right sides of the light hard protective frame (91) are penetrated with fixing slots (93), the fixing slots (93), the card point slots (690) and the plugging points (25) are arranged on the same axis, and are used to penetrate the plugging points (25) through the fastening screws to form a connection with the fixing slots (93), wherein a soft gasket is installed on the side of the fixing slots (93), the interior of the light hard protective frame (91) is surrounded by a filling belt (94), and the interior of the filling belt (94) is filled with titanium dioxide nanoparticles, a plug slot (96) is opened on the surface of the light hard protective frame (91), and the rotating short shaft (73) drives the head protective shell (74) to rotate through the plug slots (96), and a heat dissipation end (95) is penetrated on the surface of the light hard protective frame (91).

9. The ice hockey helmet mask according to claim 1, characterized in that: The bottom of the wearable helmet body (61) is fastened with a mandibular elastic band (5), the mandibular elastic band (5) and the bottom frame of the protective frame (1) form a mounting connection, and the back end of the mandibular elastic band (5) is installed with an attachment connector (4).

10. The ice hockey helmet mask according to claim 6, characterized in that: A sweat-absorbing belt (8) is fastened to the bottom of the flexible superimposed layer (71), and a micro axial flow fan is installed at the connection end between the sweat-absorbing belt (8) and the flexible superimposed layer (71).

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