Green and energy-saving shower room

Abstract

The invention relates to the technical field of shower room equipment, and discloses a green and energy-saving shower room which comprises a box body, and a shower room for a user to take a shower is formed in the box body; a closing door for users to enter and exit is arranged in the middle of the front side of the box body; bottom feet used for supporting and balance adjustment are arranged at the four corners of the bottom end of the box body. The heat storage and energy saving mechanism is arranged at the top of the box body and used for storing external environment illumination and heat in the shower use process and releasing the heat in the use process; the breathing heat exchange mechanism is arranged on the upper middle portion of the rear side of the box body. By adding and arranging the gas-liquid synergistic mechanism, when a user takes a shower for cleaning, firstly, the mechanism forms water flow containing tiny bubbles through high-pressure gas-liquid mixing, impact force generated by bubble breakage is matched with water flow stripping force, and the water flow stripping force is improved; the stubborn sand grains at the body hair roots and the skin wrinkles can be efficiently removed, and meanwhile, the waste of water resources in the showering process can be reduced.

Description

Technical Field

[0001] The invention relates to the technical field of shower room equipment, in particular to a green and energy-saving shower room. Background Art

[0002] As a complex venue combining natural landscapes with leisure activities, beaches are popular choices for family outings and couples' vacations, as well as ideal venues for large-scale events such as music festivals and beach sports. When tourists stroll along the beach, play in the sea, or take sand baths, they inevitably accumulate large amounts of sand and seawater residue on their bodies. Sand, due to the adhesion of body oils and sweat, easily becomes lodged between toes, at the roots of body hair, and in skin folds, forming a stubborn attachment. Salts such as sodium chloride and magnesium sulfate in seawater evaporate and crystallize, increasing the bond between sand and skin and potentially dehydrating the stratum corneum, causing dryness, itching, and other discomforts.

[0003] Currently, most outdoor showers designed for beach use a traditional open-spray design. The core principle of this design is to achieve cleansing through continuous water flow. However, this design presents significant technical limitations. First, a single stream of water cannot effectively remove embedded sand particles from the roots of hair, resulting in residual sand particles remaining on clothing after changing, and even causing secondary friction irritation. Second, salt crystals strongly adhere to the skin, so simply rinsing with cold or room-temperature water requires extended shower times, increasing water consumption by 30%-50%. Undissolved salts can remain on the skin surface, potentially causing contact dermatitis, particularly in children and those with sensitive skin. Therefore, existing shower systems struggle to meet the core need for quick and thorough cleansing after beach activities. Therefore, those skilled in the art have proposed a green, energy-saving shower to address these technical issues. Summary of the Invention

[0004] In view of the deficiencies of the existing technology, the present invention provides a green and energy-saving shower room, which solves the problem that the existing shower room cannot thoroughly clean the sand and sea salt remaining on the skin surface.

[0005] To achieve the above objectives, the present invention is implemented through the following technical solutions: a green and energy-saving shower room, comprising The box body has a shower room provided inside for users to take showers; A closed door for users to enter and exit is provided in the middle of the front side of the box; The four corners of the bottom of the box are provided with feet for support and balance adjustment; The heat storage and energy-saving mechanism is located on the top of the box and is used to store the heat from the external environment and the heat generated during showering and to release it during use; The breathing heat exchange mechanism is located in the upper middle portion of the rear side of the box body and is used to reduce the heat loss when the user is exchanging air during a shower; The gas-liquid synergistic mechanism is located in the middle of the rear side of the box and is used to synergistically remove sand particles attached to the user's skin; The drainage mechanism is disposed at the inner bottom of the box body and is used to remove the sea salt remaining on the user's skin and to discharge the waste water after showering.

[0006] Preferably, the heat storage and energy-saving mechanism includes a top seat, the top of the box body is provided with a top seat, and the inner top of the box body is provided with a metal top plate. The metal top plate absorbs the radiant heat generated by the hot water sprayed by the shower and the steam heat generated in the shower room during the user's shower, and conducts the heat. The top of the outer wall of the top seat is provided with a dark heat-absorbing material coating, which is used to absorb the heat generated by the external ambient light and conduct the heat.

[0007] Preferably, the heat storage and energy-saving mechanism also includes a hexagonal cavity, and a plurality of groups of hexagonal cavities are equidistantly provided inside the top seat. The hexagonal cavities form a rigid support structure inside the top seat, and at the same time evenly disperse heat through their hexagonal column structure. A plurality of inner pits are provided on each surface of the inner wall of the hexagonal cavity, and the inner pits can be used as the contact area of ​​the phase change energy storage material during use. A phase change energy storage material bag is provided at the inner bottom of the hexagonal cavity, and aluminum cross conduction plates are provided at the corresponding positions of the bottom of the top seat and the hexagonal cavity, and the bottoms of the aluminum cross conduction plates are respectively connected to the corresponding positions on the top of the metal top plate.

[0008] Preferably, the respiratory heat exchange mechanism includes a tail pipe, which is provided at the middle of the top end of the rear side of the box body, and the interior of the tail pipe is connected to the interior of the shower room of the box body, and the tail pipe is threadedly connected to a mesh cover on one end of the tail pipe in the shower room, and a Y-shaped tube is connected to the other end of the tail pipe, and a partition plate is provided in the middle of the Y-shaped tube, which divides the internal space of the Y-shaped tube into two independent flow channels for exhaust and intake, and the outer wall of the Y-shaped tube is covered with a rubber insulation layer.

[0009] Preferably, the breathing heat exchange mechanism also includes exchange fins, and a plurality of groups of exchange fins for heat exchange flow are equidistantly arranged in the middle of the partition plate, and a condensate collection box for collecting condensed water generated by gas condensation and liquefaction is installed at the bottom of the Y-tube. A silicone duckbill valve and an umbrella-shaped silicone valve are respectively provided on the two ends of the Y-tube away from the tail pipe, wherein the silicone duckbill valve corresponds to the air inlet end, and the umbrella-shaped silicone valve corresponds to the exhaust end, thereby ensuring that the air flow in the shower room flows in one direction, and at the same time, the exhaust end corresponding to the umbrella-shaped silicone valve on the Y-tube is used in conjunction with an exhaust fan through an externally arranged pipe to perform exhaust and ventilation treatment in the shower room during use.

[0010] Preferably, the gas-liquid enhancement mechanism includes a temporary storage box, a temporary storage box is provided at the lower middle portion of the rear side of the box body, a heater for heating shower water is provided at the lower middle portion of the temporary storage box, a mixing box is provided at the upper middle portion of the rear side of the box body, a liquid pump is provided at the middle portion of the rear side of the box body, the liquid pump injects the shower water in the temporary storage box into the mixing box through a connecting pipe, a micro air pump is provided on one side of the upper middle portion of the box body, the exhaust end of the micro air pump is connected to the interior of the mixing box through a connecting pipe, and a one-way valve is provided on the connecting pipe between the micro air pump and the mixing box to prevent the shower water from flowing back, and a closing cover is provided at the upper middle portion of the rear side of the box body.

[0011] Preferably, the gas-liquid enhancement mechanism also includes a mounting seat, a mounting seat is provided in the middle of the rear side of the inner wall of the box, a plurality of spray nozzles arranged along the contour of the human body are provided on the mounting seat, a top spray seat is provided in the middle of the bottom end of the metal top plate, the top middle part of the mixing box is connected with the top spray seat and the interior of the mounting seat respectively through the cooperation of the connecting pipe and the internal flow channel of the box, a TOF sensor is provided in the middle and upper part of the rear side of the inner wall of the box, the TOF sensor is used to scan the human contour traces of the shower user, so as to determine the location of the acupuncture points of the corresponding human body shape, and a switching controller for switching the spray direction is provided in the middle and upper part of one side of the inner wall of the box.

[0012] Preferably, the drainage removal mechanism includes a pH regulator, and a pH regulator for adjusting the pH of shower water is provided in the middle and upper part of the temporary storage box. A PID controller is provided in the middle and upper part of one side of the inner wall of the box. The PID controller adjusts the temperature of the shower water used by the shower user in a gradient manner by adjusting the operating state of the heater.

[0013] Preferably, the drainage removal mechanism also includes a mesh drainage plate, a mesh drainage plate is fixedly connected to the middle and lower part of the inner side of the box body, a plurality of trapezoidal support seats are fixedly connected at equal intervals to the inner bottom of the box body, a filter cotton plate is provided in the middle between the trapezoidal support seats, and a discharge connection end is provided in the middle of the rear bottom end of the box body.

[0014] Working principle: After playing on the beach, the players need to take a shower to clean the sand and seawater salt residues attached to the surface of the skin, so as to clean the body and change into clean clothes. When the players need to take a shower, the gas-liquid synergistic mechanism is started first, and the external conveying equipment or connecting equipment injects cold water into the temporary storage box through the injection end on the temporary storage box. Then, the cold shower water injected into the temporary storage box is heated by the heater on it, so that the shower water in the temporary storage box is heated to a temperature suitable for showering. After that, the heated shower water in the temporary storage box is pumped into the mixing box by the liquid pump, and at the same time, it is pumped into the mixing box by the liquid pump. The micro air pump injects high-pressure gas into the mixing box, so that a high-pressure gas-liquid mixture state is formed inside the mixing box, and at the same time, the shower water in the mixing box is filled with tiny bubbles. Then the treated shower water in the mixing box is transported to the corresponding shower position through the connecting pipe and the internal flow channel in the box. When the user starts to shower, the user first adjusts the shower outlet position to the top spray seat on the top through the switching controller in the box. Then the treated shower water in the mixing box is sprayed out on the top of the user through the top spray seat on the metal top plate, performing a preliminary shower cleaning treatment on the user from the top. At the same time, the treated shower water in the mixing box is The air-water mixed flow formed later breaks when it is sprayed onto the user's skin surface by the top spray seat, thereby generating a small impact force. This small impact force cooperates with the stripping force of the water flow to impact and remove the sand particles attached to the roots of the body hair, thereby completing the preliminary cleaning of the user's skin surface. Then the user adjusts the water outlet position of the shower to the position of the mounting seat through the switching controller on the box again. At this time, the TOF sensor in the box scans the user's body contour and confirms the corresponding acupuncture point distribution through the scanning results of the body contour. Later, when the user takes a shower, in the first stage, all the spray nozzles on the mounting seat discharge water, and at the same time, use The user raises his arms and rotates his body, and the spray nozzles on the mounting base spray the mixed air and water flow on the user's body surface to perform a full-scale spray cleaning on the user, thereby removing the sand remaining on the user's surface. In the second stage, the spray nozzles on the mounting base confirm the user's acupuncture point positions on the mounting base based on the previous scan of the user's body contour, and then the spray nozzles on the mounting base corresponding to the user's standing acupuncture point positions spray high-pressure air-liquid mixed flow to massage and stimulate the corresponding acupuncture points of the user, thereby completing the stimulation and massage treatment of the user's body acupuncture points, reducing the user's fatigue after play, and thus completing the multiple shower treatments for the user;At the same time, the heat storage and energy-saving mechanism is activated. First, when the device is not in use, the light temperature in the external environment is absorbed by the dark heat-absorbing material coating on the top seat. The dark heat-absorbing material coating causes its temperature to rise during the continuous absorption process. At the same time, the heat it absorbs is also synchronously conducted to the hexagonal cavity in the top seat, so that the phase change energy storage material package in the hexagonal cavity is synchronously heated, and the paraffin-based material in the phase change energy storage material package is melted from solid to liquid. At the same time, the heat is guided to the center of each hexagonal cavity through the inner pit pattern in the hexagonal cavity, thereby avoiding the occurrence of local overheating, thereby completing the conversion and storage of external energy. When the user takes a shower, the radiant heat and steam heat generated by the hot water spray cause the temperature in the shower room inside the box to rise. The heat generated in the shower room during the shower process is absorbed by the metal top plate in the box. After absorbing the heat, The metal top plate is heated synchronously, and the heat absorbed therein is conducted to the phase change energy storage material package in the hexagonal cavity through the aluminum cross conduction plate, and cooperates with the conversion of the above-mentioned external energy to ensure the heat storage state of the phase change energy storage material package in the hexagonal cavity. Then, after the user finishes showering, the temperature in the shower room inside the box begins to gradually drop. At this time, the phase change energy storage material package in the hexagonal cavity is converted from a heat storage state to a heat release state. At this time, the paraffin-based material in the phase change energy storage material package solidifies from liquid to solid, thereby releasing its stored heat in this process. The heat released is then conducted to the metal top plate in the box through the aluminum cross conduction plate at the bottom of the top seat to heat it up. After heating, the metal top plate maintains the temperature in the shower room inside the box through thermal radiation, thereby avoiding the perceived temperature difference caused by the sudden drop in temperature after showering, thereby completing the storage and utilization of external energy and energy generated during use.At the same time, the breathing heat exchange mechanism is started. When the user is taking a shower or cleaning himself with a shower, the hot and humid air generated by the shower enters the independent flow channel used for exhaust inside the Y-tube under the guidance of the exhaust fan and the connecting pipe. When the hot and humid air flows through the exchange fins in the independent flow channel, not only will the flow speed be reduced by the restriction of the exchange fins, but the heat contained in the hot and humid air will also be conducted to the opposite air inlet cavity side through the exchange fins. At the same time, the water vapor in the hot and humid air condenses into liquid water on the surface of the exchange fins and drops into the condensate collection box at the bottom of the Y-tube. The staff can connect the bottom of the condensate collection box with the temporary storage box through the connecting pipe, so as to make full use of the condensate. At the same time, the outdoor cold air enters the corresponding independent flow channel through the silicone duckbill valve on the Y-tube. When the outdoor cold air flows through the exchange fins, the exchange fins limit its flow rate and at the same time heat it up through the heat conducted from the exhaust chamber on the exchange fins. Therefore, the outdoor cold air absorbs heat and heats up before entering the shower room. The heated air is then injected into the shower room through the tail pipe and the mesh cover at the bottom. While replenishing fresh air into the shower room inside the box, a sudden drop in indoor temperature is avoided. At this time, the silicone duckbill valve only allows air to flow in from the outside, and the umbrella-shaped silicone valve only allows hot and humid air to be discharged, forming a closed cycle to avoid cross contamination, thereby completing the breathing heat exchange treatment during the shower process.At the same time, the drainage mechanism is started. When the user is taking a shower to clean, the gas-liquid enhancement mechanism simultaneously cleans the sand attached to the user's skin. At the same time, the drainage mechanism can be used in conjunction with it to remove the sea salt remaining on the user's skin surface. When removing the residual sea salt, first adjust the pH value of the shower water in the temporary storage box to a slightly higher pH value than the seawater through the pH regulator. The shower water after adjustment weakens the adsorption force of chloride ions in the sea salt. Then, when the user takes a shower through the gas-liquid enhancement mechanism, the PID controller in the box is used to step-by-step increase the temperature of the shower water. In the initial stage, the PID controller controls the temperature of the shower water at about 25 degrees, and then enters the second stage after one minute. The PID controller controls the temperature of the shower water at about 38 degrees, accelerating the skin surface cleaning by increasing the temperature. The PID controller controls the shower water temperature to approximately 30 degrees Celsius at the end of the shower, and uses a misting spray to completely remove any remaining sea salt on the user's skin, thereby completing the user's complete cleansing process. During use, wastewater generated during the user's shower enters the bottom of the box through the mesh on the mesh drainage plate. As the wastewater falls, the filter cotton plate on the trapezoidal support seat collects pollutants such as hair and sand in the wastewater. The wastewater that finally falls to the bottom of the box is discharged through the discharge connection, thus completing the removal of residual sea salt and the discharge of shower wastewater. Finally, after the shower, the user can completely remove the sand and sea salt attached to their skin. After drying themselves, the user can change into clean clothes and leave.

[0015] The present invention provides a green and energy-saving shower room with the following beneficial effects: 1. The present invention adds and sets a heat storage and energy-saving mechanism. During the use of the shower room, this mechanism can not only absorb external light heat through the dark heat-absorbing coating, but also use the metal roof to collect radiant heat and steam heat during showering, and store heat through phase change energy storage materials. After the shower, the stored heat is released through the metal roof to maintain a stable indoor temperature and avoid physical discomfort caused by a sudden drop in temperature. At the same time, the hexagonal cavity structure forms a rigid support, taking into account both uniform heat conduction and structural stability, thereby improving energy utilization efficiency and enhancing user comfort.

[0016] 2. The present invention adds and sets a breathing heat exchange mechanism. When the shower room is used for ventilation and air exchange, the mechanism, on the one hand, realizes heat exchange between hot and humid air and outdoor cold air through the independent flow channel and exchange fins of the Y-shaped tube, recovers the heat in the hot and humid air to preheat the fresh air, and reduces indoor temperature loss. On the other hand, the silicone duckbill valve and the umbrella-shaped silicone valve ensure unidirectional air flow to avoid cross contamination. The condensed water collection box can recycle water vapor condensed water. At the same time, the rubber insulation layer reduces the heat loss of the pipeline, which not only achieves energy saving but also maintains the indoor air quality and humidity balance.

[0017] 3. The present invention adds and sets a gas-liquid synergistic mechanism. When the user is showering and cleaning, first, the mechanism forms a water flow containing tiny bubbles through high-pressure gas-liquid mixing. The impact force of the bubble bursting is combined with the stripping force of the water flow to efficiently remove stubborn sand particles at the roots of body hair and skin folds while also reducing water waste during showering. Secondly, after the TOF sensor scans the human body contour, the spray nozzle can accurately locate acupuncture points and realize the massage function through high-pressure water flow to relieve fatigue. In addition, the switching controller supports multi-position spray switching, which not only improves the thoroughness of cleaning but also enhances the comfortable showering experience.

[0018] 4. The present invention adds and sets a gas-liquid synergistic mechanism. When the user takes a shower, the mechanism adjusts the pH of the water through the pH regulator to weaken the adsorption of chloride ions in sea salt. Then, the PID controller is used to adjust the water temperature gradient, accelerating the dissolution of residual salt on the user's skin surface while reducing irritation to the user's skin. The mesh drainage plate and filter cotton plate can then filter sand and hair in the wastewater, facilitating subsequent wastewater treatment. This treatment method can not only completely remove salt on the skin surface and protect people with sensitive skin, but also achieve preliminary purification of the wastewater, in line with the concept of green environmental protection. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 It is a schematic diagram of the front structure of the present invention; Figure 2 It is a schematic diagram of the rear structure of the present invention; Figure 3 This is a schematic diagram of the inner structure of the enclosed cover of the present invention; Figure 4 It is a schematic cross-sectional view of the internal structure of the box body of the present invention; Figure 5 It is a schematic cross-sectional view of the internal structure of the top seat of the present invention; Figure 6 It is a schematic diagram of the local structure of the metal top plate of the present invention; Figure 7 It is a schematic diagram of the partial structure of the mounting base of the present invention; Figure 8It is a schematic diagram of the local structure of the Y-shaped tube of the present invention; Figure 9 It is a schematic cross-sectional view of the internal structure of the Y-type tube of the present invention.

[0020] Among them, 1. Box body; 2. Top seat; 3. Dark heat-absorbing material coating; 4. Closing door; 5. Y-type tube; 6. Silicone duckbill valve; 7. Umbrella-shaped silicone valve; 8. Temporary storage box; 9. Heater; 10. Discharge connection end; 11. pH regulator; 12. Closing cover; 13. Mixing box; 14. Liquid pump; 15. One-way valve; 16. Micro air pump; 17. Switching controller; 18. TOF sensor; 19. Metal top plate; 20. Aluminum cross conduction plate; 21. Top spray seat; 22. Mesh cover; 23. Mounting seat; 24. PID controller; 25. Mesh drainage plate; 26. Trapezoidal support seat; 27. Filter cotton plate; 28. Spray nozzle; 29. ​​Hexagonal cavity; 30. Phase change energy storage material package; 31. Inner pit; 32. Tail pipe; 33. Condensate collection box; 34. Independent flow channel; 35. Partition plate; 36. Rubber insulation layer; 37. Exchange fin. DETAILED DESCRIPTION

[0021] The following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the accompanying drawings of the present invention. Obviously, the described embodiments 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 making creative efforts are within the scope of protection of the present invention.

[0022] Please see the attached Figure 1 - Attachment Figure 2 The embodiment of the present invention provides a green and energy-saving shower room, comprising a box body 1, wherein a shower room for a user to shower is provided inside the box body 1; a closed door 4 for a user to enter and exit is provided at the middle of the front side of the box body 1; and feet for support and balance adjustment are provided at the four corners of the bottom end of the box body 1; Please see the attached Figure 3 and attached Figure 7 , a gas-liquid synergistic mechanism, which is arranged in the middle of the rear side of the box body 1, and is used to perform synergistic removal processing on sand particles attached to the user's skin; The gas-liquid enhancement mechanism includes a temporary storage box 8, which is provided at the middle and lower part of the rear side of the box body 1. A heater 9 for heating shower water is provided at the middle and lower part of the temporary storage box 8. A mixing box 13 is provided at the middle and upper part of the rear side of the box body 1. A liquid pump 14 is provided at the middle part of the rear side of the box body 1. The liquid pump 14 injects the shower water in the temporary storage box 8 into the mixing box 13 through a connecting pipe. A micro air pump 16 is provided on one side of the middle and upper part of the box body 1. The exhaust end of the micro air pump 16 is connected to the interior of the mixing box 13 through a connecting pipe, and a one-way valve 15 is provided on the connecting pipe between the micro air pump 16 and the mixing box 13 to prevent the shower water from flowing back. A closing cover 12 is provided at the middle and upper part of the rear side of the box body 1.

[0023] When the gas-liquid enhancement mechanism is started, the external conveying equipment or connecting equipment injects cold water into the temporary storage box 8 through the injection end on the temporary storage box 8, and then the cold shower water injected into the temporary storage box 8 is heated by the heater 9 thereon, thereby heating the shower water in the temporary storage box 8 to a temperature suitable for showering and washing.

[0024] The heated shower water in the temporary storage box 8 is then pumped into the mixing box 13 by the liquid extraction pump 14. Simultaneously, high-pressure gas is injected into the mixing box 13 by the micro air pump 16, thereby forming a high-pressure gas-liquid mixed state inside the mixing box 13. At the same time, the shower water in the mixing box 13 is filled with tiny bubbles. The treated shower water in the mixing box 13 is then transported to the corresponding shower position through the connecting pipe and the internal flow channel in the box body 1.

[0025] When the user starts to shower, the user first adjusts the water outlet position of the shower to the top spray seat 21 at the top through the switching controller 17 in the box body 1. Then, the shower water after being treated in the mixing box 13 is sprayed out from the top of the user through the top spray seat 21 on the metal top plate 19, performing a preliminary shower cleaning treatment on the user from the top. At the same time, the air-water mixed flow formed after being treated in the mixing box 13 is broken when it is sprayed out from the user's skin surface by the top spray seat 21, thereby generating a small impact force. This small impact force cooperates with the peeling force of the water flow to impact and remove sand particles attached to the roots of body hair, thereby completing the preliminary cleaning treatment of the user's skin surface.

[0026] The gas-liquid enhancement mechanism also includes a mounting seat 23. The mounting seat 23 is provided in the middle of the rear side of the inner wall of the box body 1. There are multiple spray nozzles 28 arranged along the human body contour on the mounting seat 23. The top spray seat 21 is provided in the middle of the bottom end of the metal top plate 19. The top middle part of the mixing box 13 is connected to the top spray seat 21 and the interior of the mounting seat 23 through the connecting pipe and the internal flow channel of the box body 1. A TOF sensor 18 is provided in the middle and upper part of the rear side of the inner wall of the box body 1. The TOF sensor 18 is used to scan the human body contour traces of the shower user, so as to determine the location of the acupuncture points corresponding to the human body shape. A switching controller 17 for switching the spray direction is provided in the middle and upper part of one side of the inner wall of the box body 1.

[0027] Then the user adjusts the water outlet position of the shower to the position of the mounting seat 23 again through the switching controller 17 on the box 1. At this time, the TOF sensor 18 in the box 1 scans the user's body contour and confirms the corresponding acupuncture point distribution through the scanning results of the body contour.

[0028] Then, when the user takes a shower, in the first stage, all the spray nozzles 28 on the mounting seat 23 discharge water, and at the same time, the user raises his arms and rotates his body. The air-water mixed flow sprayed by the spray nozzles 28 on the mounting seat 23 is sprayed on the surface of the user's body to perform a full-scale spray cleaning on the user, thereby removing the sand remaining on the user's surface. In the second stage, the spray nozzles 28 on the mounting seat 23 confirm the user's acupoint position on the mounting seat 23 based on the previous scan of the user's body contour, and then the spray nozzles 28 on the mounting seat 23 corresponding to the user's standing acupoint position spray high-pressure air-liquid mixed flow to massage and stimulate the corresponding acupoints of the user, thereby completing the stimulation and massage treatment of the user's body acupoints, reducing the user's fatigue after playing, and completing the multiple shower treatments for the user.

[0029] Please see the attached Figure 5 - Attachment Figure 6 , a heat storage and energy-saving mechanism, which is arranged on the top of the box body 1, is used to store the heat from the external ambient light and the heat during shower use and release it during use; The heat storage and energy-saving mechanism includes a top seat 2. The top seat 2 is provided on the top of the box body 1. A metal top plate 19 is provided on the inner top of the box body 1. The metal top plate 19 absorbs the radiant heat generated by the hot water spray of the shower and the steam heat generated in the shower room during the user's shower, and conducts the heat. The top of the outer wall of the top seat 2 is provided with a dark heat-absorbing material coating 3. The dark heat-absorbing material coating 3 is used to absorb the heat generated by the external ambient light and conduct the heat.

[0030] When the heat storage and energy-saving mechanism is started, first, when the device is not in use, the light temperature in the external environment is absorbed by the dark heat-absorbing material coating 3 on the top seat 2. The dark heat-absorbing material coating 3 causes its temperature to rise during the continuous absorption process. At the same time, the heat absorbed by it is also synchronously conducted to the hexagonal cavity 29 in the top seat 2, so that the phase change energy storage material package 30 in the hexagonal cavity 29 is synchronously heated, and the paraffin-based material in the phase change energy storage material package 30 is melted from solid to liquid. At the same time, the heat is guided to the center of each hexagonal cavity 29 through the inner pit 31 pattern in the hexagonal cavity 29, thereby avoiding the occurrence of local overheating, thereby completing the conversion and storage of external energy.

[0031] The heat storage and energy-saving mechanism also includes a hexagonal cavity 29. There are multiple groups of hexagonal cavities 29 equidistantly arranged inside the top seat 2. The hexagonal cavity 29 forms a rigid support structure inside the top seat 2 and at the same time evenly disperses heat through its hexagonal column structure. Multiple groups of inner pits 31 are provided on each surface of the inner wall of the hexagonal cavity 29. The inner pits 31 can be used as the contact area of ​​the phase change energy storage material during use. The inner bottom of the hexagonal cavity 29 is provided with a phase change energy storage material bag 30. Aluminum cross conduction plates 20 are provided at the corresponding positions of the bottom of the top seat 2 and the hexagonal cavity 29, and the bottoms of the aluminum cross conduction plates 20 are respectively connected to the corresponding positions on the top of the metal top plate 19.

[0032] Each phase change energy storage material package 30 is composed of 60% paraffin-based composite material, 30% expanded graphite, and 10% graphene nanosheets. The expanded graphite is used as a thermal conductivity enhancer. During use, the paraffin absorbs or releases heat through solid-liquid phase transition. The expanded graphite solves the volume expansion problem during the paraffin phase transition. The graphene sheets construct a thermal conductive network, thereby ensuring temperature uniformity within each hexagonal cavity 29.

[0033] When the user takes a shower, the radiant heat and steam heat generated by the hot water spray cause the temperature in the shower room inside the box body 1 to rise. The heat generated in the shower room during the shower process is absorbed by the metal top plate 19 inside the box body 1. After absorbing the heat, the metal top plate 19 is heated up synchronously. The heat absorbed therein is conducted to the phase change energy storage material package 30 in the hexagonal cavity 29 through the aluminum cross conduction plate 20. By cooperating with the conversion of the above-mentioned external energy, the heat storage state of the phase change energy storage material package 30 in the hexagonal cavity 29 is ensured.

[0034] Then, after the user finishes showering, the temperature in the shower room in the box body 1 begins to gradually drop. At this time, the phase change energy storage material package 30 in the hexagonal cavity 29 is converted from a heat storage state to a heat release state. At this time, the paraffin-based material in the phase change energy storage material package 30 solidifies from liquid to solid, thereby releasing the stored heat in the process. The released heat is then conducted to the metal top plate 19 in the box body 1 through the aluminum cross conduction plate 20 at the bottom of the top seat 2 to heat it up. After heating, the metal top plate 19 maintains the temperature in the shower room in the box body 1 through heat radiation, thereby avoiding the perceived temperature difference caused by the sudden drop in temperature after showering, thereby completing the storage and utilization of external energy and energy generated during use.

[0035] Please see the attached Figure 8 - Attachment Figure 9 , a breathing heat exchange mechanism, which is arranged in the upper middle part of the rear side of the box body 1, and is used to reduce the degree of heat loss when the user is exchanging air during a shower; The breathing heat exchange mechanism includes a tail pipe 32, which is provided at the middle of the top end of the rear side of the box body 1, and the interior of the tail pipe 32 is connected to the interior of the shower room of the box body 1. The tail pipe 32 is threadedly connected to the mesh cover 22 on one end of the tail pipe 32 in the shower room, and the other end of the tail pipe 32 is connected to the Y-shaped tube 5. A partition plate 35 is provided in the middle of the Y-shaped tube 5. The partition plate 35 divides the internal space of the Y-shaped tube 5 into two independent flow channels 34 for air supply and exhaust and air intake. The outer wall of the Y-shaped tube 5 is covered with a rubber insulation layer 36.

[0036] When the respiratory heat exchange mechanism is started, when the user is taking a shower or when the user is taking a shower to clean himself, the hot and humid air generated by the shower enters the independent flow channel 34 used for exhaust inside the Y-tube 5 under the guidance of the exhaust fan and the connecting pipe. When the hot and humid air flows through the exchange fins 37 in the independent flow channel 34, not only will the flow speed be reduced by the restriction of the exchange fins 37, but the heat contained in the hot and humid air will also be conducted to the opposite air inlet cavity side through the exchange fins 37. At the same time, the water vapor in the hot and humid air condenses into liquid water on the surface of the exchange fins 37 and drops into the condensate collection box 33 at the bottom of the Y-tube 5. The staff can connect the bottom of the condensate collection box 33 with the temporary storage box 8 through the connecting pipe, so as to make full use of the condensate.

[0037] The breathing heat exchange mechanism also includes exchange fins 37. A plurality of exchange fins 37 for heat exchange are equidistantly arranged in the middle of the partition plate 35. A condensate collection box 33 for collecting condensed water generated by gas condensation and liquefaction is installed at the bottom of the Y-tube 5. A silicone duckbill valve 6 and an umbrella-shaped silicone valve 7 are respectively provided on the two ends of the Y-tube 5 away from the tail pipe 32. The silicone duckbill valve 6 corresponds to the air inlet end, and the umbrella-shaped silicone valve 7 corresponds to the exhaust end, thereby ensuring that the air flow in the shower room flows in one direction. At the same time, the exhaust end corresponding to the umbrella-shaped silicone valve 7 on the Y-tube 5 is used in conjunction with the exhaust fan through an externally arranged pipe to exhaust and ventilate the shower room during use.

[0038] At the same time, the outdoor cold air enters the corresponding independent flow channel 34 through the silicone duckbill valve 6 on the Y-tube 5. When the outdoor cold air flows through the position of the exchange fins 37, the flow rate of the outdoor cold air is limited by the exchange fins 37, and at the same time, it is heated by the heat conducted from the exhaust chamber on the exchange fins 37. Therefore, the outdoor cold air absorbs heat and heats up before entering the shower room. The heated air is then injected into the shower room through the tail pipe 32 and the mesh cover 22 at its bottom, replenishing fresh air into the shower room in the box 1 while avoiding a sudden drop in indoor temperature. At this time, the silicone duckbill valve 6 only allows air to flow in from the outside, and the umbrella-shaped silicone valve 7 only allows hot and humid air to be discharged, forming a closed cycle to avoid cross contamination, thereby completing the respiratory heat exchange treatment during the shower process.

[0039] Please see the attached Figure 1 - Attachment Figure 3 , remove the drainage mechanism, which is arranged at the inner bottom of the box body 1, and is used to remove the sea salt remaining on the user's skin and discharge the waste water after showering.

[0040] The drainage mechanism includes a PH regulator 11. A PH regulator 11 for adjusting the pH of the shower water is provided in the upper middle part of the temporary storage box 8. A PID controller 24 is provided in the upper middle part of one side of the inner wall of the box body 1. The PID controller 24 adjusts the temperature of the shower water used by the shower user by adjusting the operating state of the heater 9.

[0041] When the drainage removal mechanism is activated, when the user is taking a shower to clean himself, the gas-liquid synergistic mechanism simultaneously cleans the sand attached to the user's skin. At the same time, the drainage removal mechanism can be used in conjunction with it to remove the sea salt remaining on the user's skin surface. When removing the residual sea salt, the pH value of the shower water in the temporary storage box 8 is first adjusted to a pH value slightly higher than that of seawater through the pH regulator 11, and the shower water after adjustment weakens the adsorption force of chloride ions in the sea salt.

[0042] Then, when the user takes a shower through the gas-liquid enhancement mechanism, the temperature of the shower water is stepped up by the PID controller 24 in the box 1. In the initial stage, the PID controller 24 controls the temperature of the shower water at about 25 degrees. Then, one minute later, it enters the second stage, in which the PID controller 24 controls the temperature of the shower water at about 38 degrees. The increase in temperature accelerates the dissolution of the residual sea salt on the skin surface. When the shower is about to end, the PID controller 24 controls the temperature of the shower water at about 30 degrees, and cooperates with the atomized moisturizing spray to completely remove the sea salt remaining on the user's skin surface, thereby completing the entire cleaning process for the user.

[0043] The drainage mechanism also includes a mesh drainage plate 25, which is fixedly connected to the middle and lower inner part of the box body 1, and a plurality of trapezoidal support seats 26 are fixedly connected at equal intervals at the inner bottom of the box body 1. Filter cotton plates 27 are provided in the middle between the trapezoidal support seats 26, and a discharge connection end 10 is provided in the middle of the bottom end of the rear side of the box body 1.

[0044] During use, the waste water generated during the user's shower enters the bottom of the box 1 through the mesh on the mesh drainage plate 25. In the process of the waste water falling, the hair, sand and other pollutants in the waste water are collected by the filter cotton plate 27 on the trapezoidal support seat 26. The waste water that finally falls on the bottom of the box 1 is discharged through the discharge connection end 10, thereby completing the removal of residual sea salt and the discharge of shower waste water.

[0045] While embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions, and variations may be made to these embodiments without departing from the principles and spirit of the invention, and that the scope of the invention is defined by the appended claims and their equivalents.

Claims

1. A green and energy-saving shower room, characterized in that: include A box body (1), wherein a shower room for a user to shower is provided inside the box body (1); A closed door (4) for users to enter and exit is provided in the middle of the front side of the box body (1); The four corners of the bottom end of the box body (1) are provided with feet for support and balance adjustment; A heat storage and energy-saving mechanism is provided on the top of the box (1) and is used to store the heat from the external ambient light and the heat generated during showering and to release the heat during use; A breathing heat exchange mechanism, which is arranged at the upper middle portion of the rear side of the box body (1) and is used to reduce the degree of heat loss when the user exchanges air during a shower; A gas-liquid synergistic mechanism, which is arranged in the middle of the rear side of the box (1) and is used to perform synergistic removal processing on sand particles attached to the user's skin; A drainage mechanism is provided at the inner bottom of the box body (1) and is used to remove sea salt residue on the user's skin and to discharge waste water after showering.

2. A green and energy-saving shower room according to claim 1, characterized in that: The heat storage and energy-saving mechanism comprises a top seat (2), the top seat (2) is provided on the top of the box body (1), a metal top plate (19) is provided on the inner top of the box body (1), the metal top plate (19) absorbs the radiant heat generated by the hot water sprayed by the shower and the steam heat generated in the shower room during the user's shower, and conducts the heat, and a dark heat-absorbing material coating (3) is provided on the top of the outer wall of the top seat (2), and the dark heat-absorbing material coating (3) is used to absorb the heat generated by the external ambient light and conduct the heat.

3. A green and energy-saving shower room according to claim 2, characterized in that: The heat storage and energy-saving mechanism also includes a hexagonal cavity (29). The interior of the top seat (2) is provided with a plurality of groups of hexagonal cavities (29) at equal intervals. The hexagonal cavities (29) form a rigid support structure inside the top seat (2) and evenly disperse heat through their hexagonal column structures. Each surface of the inner wall of the hexagonal cavity (29) is provided with a plurality of groups of inner pits (31). The inner pits (31) can be used as the contact area of ​​the phase change energy storage material during use. The inner bottom of the hexagonal cavity (29) is provided with a phase change energy storage material bag (30). Aluminum cross conduction plates (20) are provided at corresponding positions of the bottom of the top seat (2) and the hexagonal cavity (29), and the bottoms of the aluminum cross conduction plates (20) are respectively connected to corresponding positions of the top of the metal top plate (19).

4. The green and energy-saving shower room according to claim 1, characterized in that: The respiratory heat exchange mechanism includes a tail pipe (32), a tail pipe (32) is provided at the middle of the top end of the rear side of the box (1), and the interior of the tail pipe (32) is connected to the interior of the shower room of the box (1), a mesh cover (22) is threadedly connected to one end of the tail pipe (32) in the shower room, and a Y-shaped tube (5) is connected to the other end of the tail pipe (32), a partition plate (35) is provided in the middle of the Y-shaped tube (5), and the partition plate (35) divides the internal space of the Y-shaped tube (5) into two independent flow channels (34) for air supply and exhaust and air intake, and the outer wall of the Y-shaped tube (5) is covered with a rubber insulation layer (36).

5. The green and energy-saving shower room according to claim 4, characterized in that: The respiratory heat exchange mechanism also includes exchange fins (37), and a plurality of exchange fins (37) for heat exchange are equidistantly arranged in the middle of the partition plate (35). A condensate collection box (33) for collecting condensed water generated by gas condensation and liquefaction is installed at the bottom of the Y-tube (5). A silicone duckbill valve (6) and an umbrella-shaped silicone valve (7) are respectively arranged on the two ends of the Y-tube (5) away from the tail pipe (32), wherein the silicone duckbill valve (6) corresponds to the air inlet end, and the umbrella-shaped silicone valve (7) corresponds to the exhaust end, thereby ensuring that the air flow in the shower room flows in one direction. At the same time, the exhaust end corresponding to the umbrella-shaped silicone valve (7) on the Y-tube (5) is used in conjunction with an exhaust fan through an externally arranged pipeline to exhaust and ventilate the shower room during use.

6. The green and energy-saving shower room according to claim 1, characterized in that: The gas-liquid synergistic mechanism comprises a temporary storage box (8), a temporary storage box (8) is provided at the middle and lower part of the rear side of the box body (1), a heater (9) for heating shower water is provided at the middle and lower part of the temporary storage box (8), a mixing box (13) is provided at the middle and upper part of the rear side of the box body (1), a liquid pump (14) is provided at the middle part of the rear side of the box body (1), and the liquid pump (14) injects the shower water in the temporary storage box (8) into the mixing box (13) through a connecting pipe, a micro air pump (16) is provided on one side of the middle and upper part of the box body (1), an exhaust end of the micro air pump (16) is communicated with the interior of the mixing box (13) through a connecting pipe, and a one-way valve (15) for preventing shower water from flowing back is provided on the connecting pipe between the micro air pump (16) and the mixing box (13), and a sealing cover (12) is provided at the middle and upper part of the rear side of the box body (1).

7. A green and energy-saving shower room according to any one of claims 3 or 6, characterized in that: The gas-liquid synergistic mechanism further comprises a mounting seat (23), a mounting seat (23) being provided at the middle of the rear side of the inner wall of the box body (1), a plurality of spray nozzles (28) being provided on the mounting seat (23) along the shape of the human body contour, a top spray seat (21) being provided at the middle of the bottom end of the metal top plate (19), the top middle of the mixing box (13) being communicated with the top spray seat (21) and the interior of the mounting seat (23) respectively through the cooperation of the connecting pipe and the internal flow channel of the box body (1), a TOF sensor (18) being provided at the middle and upper part of the rear side of the inner wall of the box body (1), the TOF sensor (18) being used to scan the human body contour traces of the shower user, thereby determining the location of the acupuncture points corresponding to the human body shape, and a switching controller (17) for switching the spray direction being provided at the middle and upper part of one side of the inner wall of the box body (1).

8. The green and energy-saving shower room according to claim 6, characterized in that: The drainage removal mechanism includes a pH regulator (11). The pH regulator (11) for adjusting the pH of shower water is provided at the upper middle portion of the temporary storage box (8). A PID controller (24) is provided at the upper middle portion of one side of the inner wall of the box body (1). The PID controller (24) adjusts the temperature of the shower water used by the shower user by adjusting the operating state of the heater (9).

9. The green and energy-saving shower room according to claim 8, characterized in that: The drainage mechanism further comprises a mesh drainage plate (25), the mesh drainage plate (25) being fixedly connected to the middle and lower portion of the inner side of the box body (1), a plurality of trapezoidal support seats (26) being fixedly connected at equal intervals to the inner bottom of the box body (1), a filter cotton plate (27) being provided in the middle between the trapezoidal support seats (26), and a discharge connection end (10) being provided in the middle of the rear bottom end of the box body (1).

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