Visual intelligent diving suit

Abstract

A visual intelligent diving suit comprises an inner suit and an outer suit, the inner suit comprises an inner lifesaving suit, an underwater processing unit, an intelligent terminal system and multiple pieces of electric heating materials, the multiple pieces of electric heating materials are evenly arranged on the surface of the inner lifesaving suit, and the multiple pieces of electric heating materials are electrically connected with the intelligent terminal system through wires; an underwater processing unit is fixedly bonded to the chest position of the inner life-saving suit, the underwater processing unit is electrically connected with the intelligent terminal system through an electric wire, the outer suit comprises an outer life-saving suit, a diving helmet and a diving umbilical cord, the outer life-saving suit is arranged on the outer side of the inner life-saving suit in a sleeving mode, an underwater sonar is arranged at the top of the diving helmet, and the underwater sonar is electrically connected with the underwater processing unit. A visual module is arranged on the front side of the diving helmet, and an augmented reality module is arranged on one side of the visual module. By means of the underwater processing unit and the visual module, high-definition visual images can be generated, the vital signs of a diver can be mastered in real time while the underwater environment is mastered, and the safety of diving operation is greatly improved.

Description

TECHNICAL FIELD

[0001] The utility model relates to a diving suit technical field, especially a visual intelligent diving suit. BACKGROUND

[0002] Diving suit is diving supplies, for preventing the body temperature loss too fast when diving, cause hypothermia, also can protect the diver from the harm of reef or harmful animals and plants.

[0003] And in the underwater complex environment, especially in turbid water area, the existing diving suit cannot help the diver to directly observe the environment, and cannot perceive the physiological state of the diver and the real-time situation underwater, when an emergency occurs, the rescue timeliness is poor, and the underwater salvage operation ability of complex water area is poor, and an intelligent diving suit with corresponding functions is urgently needed to solve these safety problems. UTILITY MODEL CONTENT

[0004] The utility model aims at providing a visual intelligent diving suit to solve the problems in the prior art.

[0005] The above technical purpose of the utility model is realized by the following technical scheme:

[0006] A visual intelligent diving suit, including inner clothes and outer clothes, the inner clothes include inner life saving clothes, underwater processing unit, intelligent terminal system and multiple pieces of electric heating material, the surface of the inner life saving clothes is uniformly provided with multiple pieces of electric heating material, the multiple pieces of electric heating material are electrically connected with the intelligent terminal system through wires, the chest position of the inner life saving clothes is adhesively fixed with the underwater processing unit, the underwater processing unit is used for detecting physiological condition and monitoring environment, the underwater processing unit is electrically connected with the intelligent terminal system through wires,

[0007] The outer clothes include outer life saving clothes, diving helmet and diving umbilical cord, the outer life saving clothes is sleeved on the outside of the inner life saving clothes, the front side waist of the outer life saving clothes is provided with one end of breathing umbilical cord, the other end of the breathing umbilical cord is connected with power supply system, the power supply system is used for power supply for the whole diving suit, the top of the diving helmet is provided with underwater sonar, the front side of the diving helmet is provided with visual module, one side of the visual module is provided with augmented reality module, the visual module is detachably installed with breathing valve below, the air inlet of the breathing valve is connected with breathing umbilical cord, the other end of the breathing umbilical cord is communicated with diving bell.

[0008] By adopting the technical scheme, the intelligent terminal system takes the new diving lifesaving suit as a carrier, takes the integrated life sign monitoring module and environment monitoring module as components, is connected with the intelligent terminal on the water surface through the communication and power supply cable on the umbilical cord of the diver, the life sign monitoring module converts the collected electrocardio and body temperature and other life sign signals and underwater environment related signals of the environment monitoring module outside the suit into digital signals through the sensor probe embedded in the diving lifesaving suit, and then transmits the signals to the intelligent terminal on the water surface through the umbilical cord of the diver. The main components of the diving helmet include the helmet, a secondary pressure reducer, a combination valve, a communication system and the like. The helmet body is made of stainless steel, is safe and reliable, and has a pressure weight function. The underwater processing unit monitors and displays the physiological and environmental parameters of the diver in real time, establishes and generates a physiological and environmental information database of the diver, and the main control element of the underwater processing unit is a new type of mixed signal processor adopting the latest low-power consumption technology. The underwater processing unit includes a temperature sensor, a pressure sensor, a pulse oximeter sensor, an underwater environment multi-parameter sensor and the like, effectively improves the detection of the underwater conditions and the life signs of the diver, and can strengthen the perception of the diver to the environment through the visual module on the diving helmet, greatly improves the safety of diving, and enhances the underwater experience.

[0009] In further embodiments, the underwater processing unit comprises a life sign monitoring module and an environment monitoring module.

[0010] The life sign monitoring module comprises an inner wristband, an outer wristband and a chest collecting module. The inner wristband is sleeved on the wrist of the diver, the outer wristband is sleeved on the outside wrist of the diving suit corresponding to the position of the inner wristband, the inner wristband is used for collecting the pulse blood oxygen saturation life sign signal, and the chest collecting module is fixedly installed on the left chest of the inside of the diving suit and is used for collecting the heart rate and electrocardio signal.

[0011] The environment monitoring module comprises a shell, a temperature measuring probe, a piezoresistive pressure sensor and a multi-parameter sensor. The shell is detachably installed on the diving umbilical cord. The inside of the shell is sequentially provided with the temperature measuring probe, the piezoresistive pressure sensor and the multi-parameter sensor from top to bottom. The bottom of the shell is provided with a mounting hole, the bottom end of the multi-parameter sensor penetrates through the mounting hole, and a sealing gasket is arranged in the mounting hole.

[0012] By adopting the technical scheme, the wearable diver vital sign monitoring system is divided into four parts, namely, a wrist collecting part, a chest collecting part, a gateway part and a mobile terminal part. The wrist collecting part adopts an inner and outer wristband form, the diving suit outer wristband comprises a display screen, the diving suit inner wristband and the diving suit outer wristband are both sleeved at the diver's wrist, the diving suit inner wristband contacts the diver and is located at the inner side of the diving suit, the diving suit outer wristband is located at the outer side of the diving suit, the system adopts a double-wristband wearable design, the vital sign data can be collected and the diver can be self-monitored without damaging the diving suit, the diver can check the vital sign data in time and take emergency measures or maneuvering measures, the diving suit inner wristband is connected with the vital sign monitoring sensor, the diving suit outer wristband comprises a display screen, the diving suit inner wristband and the diving suit outer wristband are both sleeved at the diver's wrist, the diving suit inner wristband contacts the diver and is located at the inner side of the diving suit, the diving suit outer wristband is located at the outer side of the diving suit, the first wireless communication unit and the second wireless communication unit establish wireless communication, the system adopts a double-wristband wearable design, the vital sign data can be collected and the diver can be self-monitored without damaging the diving suit, the diver can check the vital sign data in time and take emergency measures or maneuvering measures, and the communication can be realized by using a radio frequency module and a Bluetooth module.

[0013] In a further embodiment, the visual module comprises a bracket, a first waveguide sheet, a second waveguide sheet, a light machine and a driving board, the bracket is fixedly connected to the front side of the diving helmet, the first waveguide sheet is fixedly installed at the left end of the front side of the bracket, the second waveguide sheet is fixedly installed at the right end of the front side of the bracket, the first waveguide sheet and the second waveguide sheet are both used to provide more virtual information, the light machine is fixedly installed at the right end of the back side of the bracket, the light machine is provided with an insertion interface on one side, the driving board is inserted into the insertion interface, the driving board is used to convert the visual image that the diver can understand according to the information collected by the underwater sonar, and the light machine is used to generate the image converted by the driving board on the first waveguide sheet and the second waveguide sheet.

[0014] By adopting the technical scheme, the optical waveguide sheet is a lateral organic light-emitting semiconductor array light waveguide augmented reality display module, the module uses a 0.39 organic light-emitting semiconductor silicon-based micro display as an image display, projects the image onto the series of half-transmission half-reflection films of the waveguide sheet through a lens group collimation unit to reflect the image onto the retina, the display of the product is an organic light-emitting semiconductor high-brightness silicon-based micro display, so it inherits the characteristics of the organic light-emitting semiconductor, such as bright colors, low power consumption and high and low temperature resistance, as an array light waveguide, the transparency of the waveguide sheet is very high, which can reach 85%, and is comparable to the light transmittance of some glasses.

[0015] In further embodiments, the interior of the diving helmet is provided with an underwater communication module, the underwater communication module comprising a micro host and a communication module, the micro host and the communication module being electrically connected through a data line, the micro host being detachably installed with an acoustic sensor, the micro host being electrically connected with the augmented reality module through a data line, the communication module being electrically connected with the diving umbilical through a data line, the communication module being used to keep in touch with the deck communication machine.

[0016] By adopting the above technical scheme, the main function of the underwater communication module is to realize the mutual communication between the diver and the water surface personnel during the operation of the diver, to meet the needs of the work exchange and remote command of the diving team, the diving telephone is composed of two parts of water surface and underwater, and is connected by a cable. The diver must wear a diving helmet, which is configured with earphones and a microphone, and is configured with a digital audio power amplifier, which can significantly reduce current consumption and almost double the battery life. By adopting a new type of audio filtering network, the sound clarity and communication quality can be more effectively improved, and the auxiliary audio input allows the diver to listen to the audio in the MP3 while maintaining continuous communication with the diving supervisor. The built-in charger can be powered by 90-264VAC, internal 12VDC battery or external 12VDC power supply. The power module has an electrical isolation function, which provides the maximum safety guarantee for the diver. The communication device is equipped with an outdoor weatherproof AC power supply, the inlet is located on the right side of the module, the diving telephone can operate in 2-wire or 4-wire communication mode, the uplink has a volume control, the downlink has another volume controller, has a long service life and is reliable, adopts a powder coated stainless steel front panel, and is equipped with a waterproof loudspeaker and a heavy switch with waterproof sealing to cope with underwater application environment.

[0017] In further embodiments, the front side of the diving helmet is provided with an underwater optical sensor, the underwater optical sensor being electrically connected with the vision module through an electric wire, the underwater optical sensor being used to generate clear visual enhanced underwater images.

[0018] By adopting the above technical scheme, through the powerful real-time visual enhancement technology, the RGB channels of the dynamic balance optical imaging signal are generated, and the underwater images with comprehensive visual enhancement of clarity, sharpness and color are generated. In low-illumination working environment, the contrast ratio and other parameters can be preset to realize real-time enhancement of images and provide high-resolution, low-delay optical images.

[0019] In a further embodiment, the diving umbilical cord comprises an outer protective layer, an aluminum foil shielding layer, a non-woven fabric wrapping layer, a coaxial cable, a first electric wire cable and a second electric wire cable, the aluminum foil shielding layer and the non-woven fabric wrapping layer are sequentially arranged from outside to inside in the outer protective layer, the non-woven fabric wrapping layer is provided with a filling material, the coaxial cable, the first electric wire cable and the second electric wire cable are arranged in the non-woven fabric wrapping layer, and the coaxial cable, the first electric wire cable and the second electric wire cable are all bound by a plurality of groups of nylon ropes arranged at intervals.

[0020] By adopting the technical scheme, the data communication between the underwater system and the water surface system adopts a standard composite cable, the power supply in the power supply umbilical cord adopts a human body safety voltage standard, the overall power supply adopts a voltage lower than 36V, the power supply cable adopts a standard PE insulating material, the conductor adopts a tinned copper wire, the rated voltage of the cable can be up to 300V, the composite cable is cabled in a twisted pair mode, and is wrapped with an aluminum foil after being filled with Kevlar material to achieve a shielding effect.

[0021] In a further embodiment, an emergency power supply is arranged on the rear upper end of the inner wearable part.

[0022] By adopting the technical scheme, the underwater battery adopts a lithium iron phosphate battery, which has great advantages in safety performance and charge and discharge times, and has a cycle life of more than 2000 times, a standard charge of 5 hours can reach 2000 times, a service life of 10-15 years, and a battery management system is installed in the battery to prevent overcharging and overdischarging of the battery, prolong the service life, and the working temperature range is wide, which can maintain normal operation at-10-60 DEG C.

[0023] In summary, the utility model has the following beneficial effects:

[0024] 1. By arranging the underwater processing unit, the physiological and environmental parameters of the diver underwater can be monitored and displayed in real time, a physiological and environmental information database of the diver is established and generated, the main control element of the underwater processing unit is a new type of mixed signal processor, the latest low-power consumption technology is adopted, and the internal temperature sensor, pressure sensor, pulse oximeter sensor, underwater environmental multi-parameter sensor and the like are included, the detection of the underwater conditions and the vital signs of the diver is effectively improved, the perception of the diver to the environment can be strengthened through the visual module on the diving helmet, and the safety of diving is greatly improved.

[0025] 2. By setting the visual module, the image display can be realized by the optical waveguide sheet, the image is reflected to the retina by the series of semi-transparent and semi-reflective films on the waveguide sheet through the lens group collimation unit, the organic light-emitting semiconductor high-brightness silicon-based micro display, the visual image color is more bright, the power consumption is lower and the high and low temperature resistance is better.

[0026] 3. By setting the emergency power supply, the safety performance and the number of charge and discharge of the lithium iron phosphate battery are used to ensure the battery reliability and working time in harsh environment, the battery management system is installed in the battery, the overcharge and overdischarge of the battery are prevented, the service life is prolonged, the working temperature range is wide, and the normal operation can be maintained at-10-60 DEG C. BRIEF DESCRIPTION OF DRAWINGS

[0027] Figure 1 is a whole schematic view of the visualized intelligent diving suit of the utility model;

[0028] Figure 2 is a structure schematic view of the diving helmet in the visualized intelligent diving suit of the utility model;

[0029] Figure 3 is a structure schematic view of the visual module in the visualized intelligent diving suit of the utility model;

[0030] Figure 4 is an internal structure schematic view of the diving umbilical in the visualized intelligent diving suit of the utility model.

[0031] In the drawing, 1, inner clothes, 11, inner life-saving clothes, 12, underwater processing unit, 121, vital sign monitoring module, 122, environment monitoring module, 13, intelligent terminal system, 14, electric heating material, 2, outer clothes, 21, outer life-saving clothes, 22, diving helmet, 23, diving umbilical, 231, outer protective layer, 232, aluminum foil shielding layer, 233, non-woven fabric wrapping layer, 234, coaxial cable, 235, first electric wire cable, 236, second electric wire cable, 3, underwater sonar, 4, visual module, 41, support, 42, first waveguide sheet, 43, second waveguide sheet, 44, light machine, 45, driving board, 5, augmented reality module, 6, breathing valve, 7, breathing umbilical, 8, underwater communication module, 9, underwater optical sensor. DETAILED DESCRIPTION

[0032] The utility model will be further explained in detail in combination with the drawings.

[0033] Wherein, same parts are indicated by same reference numerals. It should be noted that the words "front", "back", "left", "right", "up" and "down" used in the following description refer to the attached drawings. Figure 1In this specification, the terms "bottom surface" and "top surface," "inner" and "outer" refer to the direction toward or away from the geometry of a specific component. Furthermore, the terms "first" and "second" are used for descriptive purposes only and should not be construed as indicating or implying relative importance or implicitly specifying the number of technical features indicated. Thus, a feature defined as "first" or "second" may explicitly or implicitly include one or more of that feature. In the description of this specification, "a plurality of" means two or more, unless otherwise explicitly and specifically defined by the direction of the center.

[0034] Example 1:

[0035] like Figures 1-4As shown, a visual intelligent diving suit includes an inner suit 1 and an outer suit 2, the rear upper end of the inner suit 1 is provided with an emergency power supply, the inner suit 1 includes an inner survival suit 11, an underwater processing unit 12, an intelligent terminal system 13 and a plurality of electric heating materials 14, the surface of the inner survival suit 11 is uniformly provided with a plurality of electric heating materials 14, the plurality of electric heating materials 14 are electrically connected with the intelligent terminal system 13 through wires, the underwater processing unit 12 is fixedly attached to the chest position of the inner survival suit 11, the underwater processing unit 12 is used for detecting physiological conditions and monitoring the environment, the underwater processing unit 12 is electrically connected with the intelligent terminal system 13 through wires, the outer suit 2 includes an outer survival suit 21, a diving helmet 22 and a diving umbilical cord 23, the outer survival suit 21 is sleeved on the outer side of the inner survival suit 11, one end of the diving umbilical cord 23 is arranged at the waist of the front side of the outer survival suit 21, the other end of the diving umbilical cord 23 is connected with a power supply system, the diving umbilical cord 23 includes an outer protective layer 231, an aluminum foil shielding layer 232, a non-woven fabric wrapping layer 233, a coaxial cable 234, a first wire cable 235 and a second wire cable 236, the aluminum foil shielding layer 232 and the non-woven fabric wrapping layer 233 are sequentially arranged in the outer protective layer 231 from the outside to the inside, the non-woven fabric wrapping layer 233 is provided with a filling material, the coaxial cable 234, the first wire cable 235 and the second wire cable 236 are arranged in the non-woven fabric wrapping layer 233, and the coaxial cable 234, the first wire cable 235 and the second wire cable 236 are all bound by a plurality of groups of nylon ropes arranged at intervals, the power supply system is used for supplying power to the whole diving suit, the top of the diving helmet 22 is provided with an underwater sonar 3, the inside of the diving helmet 22 is provided with an underwater communication module 8, the underwater communication module 8 includes a micro host and a communication module, the micro host is electrically connected with the communication module through a data line, the micro host is detachably installed with an acoustic sensor, the micro host is electrically connected with an augmented reality module 5 through a data line, the communication module is electrically connected with the diving umbilical cord 23 through a data line, the communication module is used for keeping contact with a deck communication machine, the front side of the diving helmet 22 is provided with a visual module 4, the front side of the diving helmet 22 is provided with an underwater optical sensor 9, the underwater optical sensor 9 is electrically connected with the visual module 4 through a wire, the underwater optical sensor 9 is used for generating clear visual enhanced underwater images, the visual module 4 includes a support 41, a first waveguide sheet 42, a second waveguide sheet 43, a light machine 44 and a driving board 45, the support 41 is fixedly connected to the front side of the diving helmet 22, the first waveguide sheet 42 is fixedly installed at the left end of the front side of the support 41, the second waveguide sheet 43 is fixedly installed at the right end of the front side of the support 41, the first waveguide sheet 42 and the second waveguide sheet 43 are both used for providing more virtual information, the light machine 44 is fixedly installed at the right end of the rear side of the support 41, one side of the light machine 44 is provided with an insertion interface, the driving board 45 is inserted into the insertion interface, the driving board 45 is used for converting the visual images that the diver can understand according to the information collected by the underwater sonar 3, the light machine 44 is used for generating the images converted by the driving board 45 on the first waveguide sheet 42 and the second waveguide sheet 43,One side of the visual module 4 is provided with an augmented reality module 5, and a breathing valve 6 is detachably installed below the visual module 4, the air inlet of the breathing valve 6 is connected with a breathing umbilical cord 7, the other end of the breathing umbilical cord 7 is communicated with a diving bell, and the picture enhanced by the visual module 4, the underwater sonar 3 and the underwater optical sensor 9 is displayed beside the diver through the light machine 44 and the waveguide sheet after being converted into an image, so that the diver can better master the environmental changes in the deep sea, thereby further improving the safety and controllability.

[0036] As shown in Figures 1-4 The underwater processing unit 12 includes a vital sign monitoring module 121 and an environment monitoring module 122, the vital sign monitoring module 121 includes an inner wristband, an outer wristband and a chest acquisition module, the inner wristband is sleeved on the wrist of the diver, the outer wristband is sleeved on the outside wrist of the diving suit corresponding to the position of the inner wristband, the inner wristband is used for acquiring a pulse blood oxygen saturation vital sign signal, and the chest acquisition part is fixedly installed on the left chest part of the inside of the diving suit, and the chest acquisition part is used for acquiring a heart rate and an electrocardio signal; the environment monitoring module 122 includes a shell, a temperature measuring probe, a piezoresistive pressure sensor and a multi-parameter sensor, the shell is detachably installed on the diving umbilical cord 23, the inside of the shell is sequentially provided with the temperature measuring probe, the piezoresistive sensor and the multi-parameter sensor from top to bottom, the bottom of the shell is provided with a mounting hole, the bottom end of the multi-parameter sensor penetrates through the mounting hole, and a sealing washer is arranged in the mounting hole, so that the vital sign monitoring module 121 and the environment monitoring module 122 can be used for monitoring the life safety of the diver in real time, avoiding that the reaction is not rapid or the reaction intensity is insufficient in special cases, and the environment monitoring module 122 can further help and protect the diver and further perceive the danger.

[0037] In the embodiments disclosed in the utility model, the terms "mounting", "connection", "connecting", "fixing" and the like should be understood in a broad sense, for example, "connecting" can be fixed connection, detachable connection or integral connection; "connection" can be direct connection or indirect connection through an intermediate medium. For ordinary skilled persons in the art, the specific meanings of the above terms in the embodiments disclosed in the utility model can be understood according to specific conditions.

[0038] The specific embodiments are only an explanation of the utility model, and are not a limitation of the utility model, and the person skilled in the art can make modifications without creative contribution according to the needs after reading the specification, but as long as it is within the scope of the claims of the utility model, it is protected by the patent law.

Claims

1. A visualizing smart diving suit comprising an inner suit (1) and an outer suit (2), characterized in that: The internal clothing (1) comprises a lifesaving suit (11), an underwater processing unit (12), an intelligent terminal system (13) and a plurality of electric heating materials (14), the surface of the lifesaving suit (11) is uniformly provided with a plurality of electric heating materials (14), the plurality of electric heating materials (14) are electrically connected with the intelligent terminal system (13) through wires, the underwater processing unit (12) is fixedly connected to the chest position of the lifesaving suit (11), the underwater processing unit (12) is used for detecting physiological conditions and monitoring environment, and the underwater processing unit (12) is electrically connected with the intelligent terminal system (13) through wires; The external clothing (2) comprises a lifesaving suit (21), a diving helmet (22) and a diving umbilical cord (23), the lifesaving suit (21) is sleeved outside the lifesaving suit (11), one end of the cable is arranged at the waist of the front side of the lifesaving suit (21), the other end of the cable is connected with a power supply system, the power supply system is used for supplying power to the whole diving suit, the top of the diving helmet (22) is provided with an underwater sonar (3), the front side of the diving helmet (22) is provided with a visual module (4), one side of the visual module (4) is provided with an augmented reality module (5), the visual module (4) is detachably installed with a breathing valve (6) below, the air inlet of the breathing valve (6) is connected with a breathing umbilical cord (7), the other end of the breathing umbilical cord (7) is communicated with a diving bell.

2. The visualizing smart diving suit according to claim 1, characterized in that: The underwater processing unit (12) comprises a vital sign monitoring module (121) and an environmental monitoring module (122); The vital sign monitoring module (121) comprises an inner wristband, an outer wristband and a chest acquisition module, the inner wristband is sleeved on the wrist of the diver, the outer wristband is sleeved on the wrist of the outside of the diving suit corresponding to the position of the inner wristband, the inner wristband is used for acquiring the pulse blood oxygen saturation vital sign signal, and the chest acquisition module is fixedly installed on the left chest portion of the inside of the diving suit, the chest acquisition module is used for acquiring the heart rate and electrocardio signal; The environmental monitoring module (122) comprises a shell, a temperature measuring probe, a piezoresistive pressure sensor and a multi-parameter sensor, the shell is detachably installed on the diving umbilical cord (23), the inside of the shell is sequentially provided with the temperature measuring probe, the piezoresistive pressure sensor and the multi-parameter sensor from top to bottom, the bottom of the shell is provided with a mounting hole, the bottom end of the multi-parameter sensor penetrates through the mounting hole, and a sealing gasket is arranged in the mounting hole.

3. The visualizing smart diving suit according to claim 1, characterized in that: The visual module (4) comprises a bracket (41), a first waveguide sheet (42), a second waveguide sheet (43), an optical machine (44) and a driving board (45), the bracket (41) is fixedly connected to the front side of the diving helmet (22), the first waveguide sheet (42) is fixedly installed at the left end of the front side of the bracket (41), the second waveguide sheet (43) is fixedly installed at the right end of the front side of the bracket (41), the first waveguide sheet (42) and the second waveguide sheet (43) are used for providing more virtual information, the optical machine (44) is fixedly installed at the right end of the back side of the bracket (41), one side of the optical machine (44) is provided with an insertion interface, the driving board (45) is inserted into the insertion interface, the driving board (45) is used for converting the visual image that the diver can understand according to the information collected by the underwater sonar (3), and the optical machine (44) is used for generating the image converted by the driving board (45) on the first waveguide sheet (42) and the second waveguide sheet (43).

4. The visualizing smart diving suit according to claim 3, characterized in that: The inside of the diving helmet (22) is provided with an underwater communication module (8), the underwater communication module (8) comprises a micro host and a communication module, the micro host and the communication module are electrically connected through a data line, an education sensor is detachably installed on the micro host, the micro host is electrically connected with the augmented reality module (5) through a data line, and the communication module is electrically connected with the diving umbilical (23) through a data line.

5. The visualizing smart diving suit according to claim 4, characterized in that: The front side of the diving helmet (22) is provided with an underwater optical sensor (9), the underwater optical sensor (9) is electrically connected with the visual module (4) through a wire, and the underwater optical sensor (9) is used for generating a clear visual enhanced underwater image.

6. The visualizing smart diving suit of claim 1, wherein: The diving umbilical (23) comprises an outer protective layer (231), an aluminum foil shielding layer (232), a non-woven fabric wrapping layer (233), a coaxial cable (234), a first wire cable (235) and a second wire cable (236), the aluminum foil shielding layer (232) and the non-woven fabric wrapping layer (233) are sequentially arranged in the outer protective layer (231) from the outside to the inside, the non-woven fabric wrapping layer (233) is provided with a filling material, the coaxial cable (234), the first wire cable (235) and the second wire cable (236) are arranged in the non-woven fabric wrapping layer (233), and the coaxial cable (234), the first wire cable (235) and the second wire cable (236) are all bound by a plurality of groups of nylon ropes arranged at intervals.

7. The visual smart diving suit of claim 1, wherein: An emergency power supply is arranged at the upper end of the back side of the innerwear (1).

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