Double-end control type hydrogen-rich cup

Abstract

The application discloses a double-end control type hydrogen-rich cup, which comprises a cup cover, a cup body and a base, wherein the base is installed at the bottom of the cup body, the cup cover is installed above the cup body, a hydrogen production device is arranged in the base, a cup cover control system is arranged in the cup cover, a base control system is arranged in the base, the hydrogen production device is electrically connected with the base control system, and the cup cover control system is wirelessly connected with the base control system. The cup cover and the base are respectively provided with control systems, and the two sets of control systems communicate through a wireless mode, so that the convenience of use is greatly increased. Meanwhile, the hydrogen-rich cup is internally provided with colorful LED, so that the colorful effect can be generated during use, and the product is increased in aesthetic feeling and science and technology feeling. In addition, the hydrogen-rich cup is provided with a touch display screen in the cup cover, so that the display and operation are convenient.

Description

Technical Field

[0001] This invention discloses a hydrogen-rich cup, particularly a dual-end control type hydrogen-rich cup, which belongs to the field of personal daily necessities technology. Background Technology

[0002] A hydrogen-rich cup is a portable drinking device that dissolves hydrogen in water through electrochemical means to prepare hydrogen-rich water. The core of the device is to utilize the antioxidant properties of hydrogen to eliminate free radicals in the body and relieve oxidative stress by drinking hydrogen-rich water. It is widely used in daily drinking water, health and wellness, and other scenarios.

[0003] The core working principle of the hydrogen-rich cup is as follows: the cup body is equipped with an electrolysis module (anode + cathode). After being energized, an electrolysis reaction occurs on the cathode side to produce hydrogen gas. Through micro-nano bubble technology, the hydrogen gas is efficiently dissolved in water, which improves the solubility and retention time of hydrogen gas in water, and finally produces hydrogen-rich water.

[0004] Existing hydrogen-rich cups typically have a hydrogen generator installed inside the base. The generator is activated during hydrogen production, dissolving hydrogen in the water and timing the process. Once the timer finishes, hydrogen production is complete. However, this introduces a new problem: users are unaware of the cup's operation and status. They might drink the water before hydrogen production is complete, or forget to drink it after production is finished, allowing hydrogen to evaporate and reducing the hydrogen concentration in the water. Furthermore, the control system of conventional hydrogen-rich cups is usually located inside the base, making use and operation relatively inconvenient and increasing the risk of the cup tipping over during operation. Summary of the Invention

[0005] To address the inconvenience of using existing hydrogen-rich cups, as mentioned above, this invention provides a dual-end control type hydrogen-rich cup, which has control systems installed in the cup lid and base respectively. The two control systems communicate wirelessly, greatly increasing ease of use.

[0006] The technical solution adopted by the present invention to solve its technical problem is: a dual-end control type hydrogen-rich cup, the hydrogen-rich cup includes a cup lid, a cup body and a base, wherein the base is installed at the bottom of the cup body, the cup lid is installed above the cup body, the hydrogen generation device is set in the base, the cup lid control system is set in the cup lid, the base control system is set in the base, the hydrogen generation device is electrically connected to the base control system, and the cup lid control system is wirelessly connected to the base control system.

[0007] The technical solution adopted by the present invention to solve its technical problem further includes: The cup lid includes a cup lid shell, a cup lid circuit board, and a cup lid internal support. The cup lid internal support is fixedly installed inside the cup lid shell, and the cup lid circuit board is fixedly installed on the cup lid internal support.

[0008] The internal support of the cup lid includes a main cup lid support and an upper cup lid support. The upper cup lid support is fixedly installed above the main cup lid support, and the main cup lid support is fixedly installed inside the cup lid shell. A cup lid circuit board support is fixedly installed below the main cup lid support, and the cup lid circuit board is fixedly installed on the cup lid circuit board support. The cup lid circuit board is provided with cup lid control buttons and a cup lid charging port. A cup lid keycap is installed on the cup lid shell corresponding to the position of the cup lid control buttons, and a cup lid charging port cover is installed on the cup lid shell corresponding to the position of the cup lid charging port. A cup lid battery is fixedly installed inside the upper cup lid support and is electrically connected to the cup lid circuit board. A cup lid LED light is provided on the cup lid circuit board, and the cup lid LED light is arranged in a ring at the bottom of the cup lid circuit board. The main cup lid support and the cup lid circuit board support are made of transparent or semi-transparent light-transmitting material.

[0009] The cup lid shell includes a cup lid shell and a cup body upper shell, with a certain gap between the cup lid shell and the cup body upper shell.

[0010] A cup lid display screen is fixedly installed above the bracket on the cup lid. The cup lid display screen is electrically connected to the cup lid circuit board, and a touch panel of the display screen is fixedly installed on the outer shell of the cup lid.

[0011] A cup lid sealing ring is fitted onto the main support of the cup lid. An inner cup lid is fixedly installed at the bottom of the main support. An air guide groove is provided on the inner surface of the inner cup lid. A vent hole is provided on the main support. A waterproof and breathable membrane is fixedly installed at the vent hole. An automatic pressure relief valve is provided on the cup lid. The automatic pressure relief valve includes a valve body, a valve core, a gasket, a spring, and a fixing component. A first pressure relief hole is provided at the bottom of the valve body. A flange is fixedly installed on the valve core. The valve core is inserted into... Inside the main body of the cup lid pressure relief valve, a cup lid pressure relief valve washer is fitted onto the cup lid pressure relief valve core. The cup lid pressure relief valve washer is positioned between the cup lid pressure relief valve main body and the cup lid pressure relief valve core. A cup lid pressure relief valve spring is fitted onto the cup lid pressure relief valve core. A cup lid pressure relief valve fixing component is fixedly installed on the top of the cup lid pressure relief valve core. The cup lid pressure relief valve spring is positioned between the cup lid pressure relief valve fixing component and the cup lid pressure relief valve core. An electromagnetic pressure relief valve is fixedly installed on the cup lid circuit board bracket. A silicone plug is connected to the electromagnetic pressure relief valve via a connecting shaft. A second pressure relief hole is opened on the side of the cup lid pressure relief valve main body, and the silicone plug is positioned corresponding to the location of the second pressure relief hole.

[0012] The base includes a base shell, an internal support, a hydrogen production device, and a base circuit board. The internal support is fixedly installed inside the base shell, and the hydrogen production device and the base circuit board are fixedly installed on the internal support.

[0013] The main body of the internal support of the base is the base main support. The base circuit board is fixedly installed at the bottom of the base main support. The base light board is fixedly installed inside the base main support. The base light board is equipped with a first base LED light. The base light board is electrically connected to the base circuit board. The base control button and the base charging port are fixedly installed on the base circuit board. The base keycap is installed on the base shell corresponding to the position of the base control button. The base charging port cover is installed on the base shell corresponding to the position of the base charging port. The base battery is installed inside the base main support. The base battery is electrically connected to the base circuit board. The base circuit board is equipped with a second base LED light. A reflector is set below the base circuit board. A bottom light guide ring is set on the outside of the reflector. The second base LED light is set between the reflector and the bottom light guide ring.

[0014] The bottom of the cup body is equipped with a cup body connecting seat, and the cup body is detachably installed to the base through the cup body connecting seat; the bottom of the cup body is also provided with a hydrogen-mixed nano-cutting membrane, which is installed in a hydrogen-mixed nano-cutting membrane fixing frame. The hydrogen-mixed nano-cutting membrane fixing frame includes a hydrogen-mixed nano-cutting membrane upper mounting seat set in the cup cavity of the cup body and a hydrogen-mixed nano-cutting membrane lower mounting seat set at the bottom of the cup body. The hydrogen-mixed nano-cutting membrane lower mounting seat is located in the cup body connecting seat, and the hydrogen-mixed nano-cutting membrane is embedded in the hydrogen-mixed nano-cutting membrane lower mounting seat.

[0015] An electrolyzer water tank is installed inside the main support of the base. A screw plug is installed above the electrolyzer water tank. The hydrogen production device is fixedly installed inside the main support of the base. The hydrogen production device includes an upper electrolyzer cover, a lower electrolyzer cover, a first electrode plate, a second electrode plate, and a proton exchange membrane. The lower electrolyzer cover is fixedly installed inside the main support of the base. An electrolyzer is formed on the lower electrolyzer cover. The first electrode plate, the proton exchange membrane, and the second electrode plate are stacked in the electrolyzer. The proton exchange membrane is positioned between the first and second electrode plates. The first electrode plate is on the upper layer, and the second electrode plate is on the lower layer. The upper electrolyzer cover is fixedly installed above the lower electrolyzer cover. The negative electrode and the positive electrode of the electrolyzer are inserted inside the lower electrolyzer cover. The negative electrode is electrically connected to the first electrode plate, and the positive electrode is electrically connected to the second electrode plate. The electrolyzer on the lower electrolyzer cover has a... An electrolytic cell sealing silicone is placed below the second electrode plate. The bottom of the electrolytic cell fixing cover is a hollow cylindrical tube with external threads. The hollow cylindrical tube is inserted into the main support of the base. A fixing nut is located below the main support of the base and is located on the external threads of the hollow cylindrical tube. A waterproof electrolytic cell silicone is fitted at the bottom of the electrolytic cell fixing cover and is located between the electrolytic cell fixing cover and the main support of the base. An exhaust valve is located inside the hollow cylindrical tube at the bottom of the electrolytic cell fixing cover, and an exhaust valve silicone is installed inside the exhaust valve. An exhaust pipe is connected to the exhaust valve. A base cover is fixedly installed at the bottom of the base shell and is fixedly installed together with the main support of the base. A base silicone anti-slip pad is fixedly installed at the bottom of the base cover, and a base exhaust port is provided on the base silicone anti-slip pad. The exhaust pipe is connected to the base exhaust port.

[0016] The beneficial effects of this invention are as follows: The invention incorporates control systems within both the cup lid and the base, with the two control systems communicating wirelessly, greatly increasing ease of use. Furthermore, the invention includes internally integrated colorful LEDs, which produce vibrant effects during use, enhancing the product's aesthetics and technological appeal. Additionally, the invention features a touchscreen display within the cup lid, facilitating both display and operation.

[0017] The present invention will be further described below with reference to the accompanying drawings and specific embodiments. Attached Figure Description

[0018] Figure 1 This is a three-dimensional structural diagram of the present invention.

[0019] Figure 2 This is a schematic diagram of the second-view three-dimensional structure of the present invention.

[0020] Figure 3 This is a schematic diagram of the decomposed state structure of the present invention.

[0021] Figure 4This is a cross-sectional view of the base and cup body separated in this invention.

[0022] Figure 5 This is a schematic diagram of the exploded structure of the cup lid in this invention.

[0023] Figure 6 This is a schematic diagram of the three-dimensional structure of the main support for the cup lid in this invention.

[0024] Figure 7 This is a three-dimensional structural diagram of the pressure relief valve body in this invention.

[0025] Figure 8 This is a schematic diagram of the three-dimensional structure of the cup body in this invention.

[0026] Figure 9 This is a schematic diagram of the decomposed structure of the hydrogen-mixed nano-cutting membrane holder in this invention.

[0027] Figure 10 This is a schematic diagram of the exploded structure of the base portion in this invention.

[0028] In the diagram, 1-cup body, 11-cup body connector, 12-hydrogen-mixed nano-cutting membrane, 13-hydrogen-mixed nano-cutting membrane holder, 131-hydrogen-mixed nano-cutting membrane upper mounting base, 132-hydrogen-mixed nano-cutting membrane lower mounting base, 133-washer, 14-lower outer shell of the cup body, 15-cup mouth thread, 16-upper outer shell of the cup body, 2-cup lid, 211-cup lid outer shell, 213-display touchpad, 214-cup lid keycap, 215-cup lid charging port cover, 216-vent cover, 221-cup lid main support, 2211-cup lid main support vent 222-Cup lid support, 223-Cup lid display screen, 224-Cup lid circuit board support, 225-Cup lid sealing ring, 226-Cup lid inner cover, 2261-Cup lid inner cover vent groove, 227-Cup lid charging port protective cover, 231-Cup lid circuit board, 232-Cup lid battery, 233-Cup lid charging port, 234-Cup lid control button, 241-Silicone plug, 242-Electromagnetic pressure relief valve, 243-Connecting shaft, 251-Cup lid pressure relief valve body, 2511-First pressure relief hole, 2512-Second pressure relief hole, 252-Cup lid pressure relief valve Valve core, 2521-flange, 253-cup lid pressure relief valve gasket, 254-cup lid pressure relief valve spring, 255-cup lid pressure relief valve fixing piece, 256-cup lid waterproof and breathable membrane, 3-base, 311-base shell, 312-base silicone anti-slip pad, 3121-base vent, 313-base keycap, 314-base charging port cover, 321-base main bracket, 322-screw plug, 323-electrolytic cell water tank, 324-base charging port protective cover, 331-base circuit board, 332-base battery, 333-base light board. 334 - Base control button; 335 - Base charging port; 341 - Reflector cup; 342 - Bottom light guide ring; 343 - Base cover; 351 - Electrolytic cell upper cover; 352 - Electrolytic cell lower cover; 353 - First electrode plate; 354 ​​- Electrolytic cell proton exchange membrane; 355 - Second electrode plate; 356 - Electrolytic cell sealing silicone; 357 - Electrolytic cell waterproof silicone; 358 - Exhaust pipe; 359 - Electrolytic cell waterproof and breathable membrane; 3510 - Exhaust valve silicone; 3511 - Exhaust valve; 3512 - Fixing nut; 36 - Base working indicator light. Detailed Implementation

[0029] This embodiment is a preferred embodiment of the present invention. All other embodiments that are the same as or similar to this embodiment in principle and basic structure are within the protection scope of the present invention.

[0030] Please refer to the appendix for details. Figure 1 To be continued Figure 10This invention mainly protects a dual-end control type hydrogen-rich cup, which mainly includes a cup lid 2, a cup body 1 and a base 3. The base 3 is installed at the bottom of the cup body 1, the cup lid 2 is installed above the cup body 1, the hydrogen generation device is set inside the base 3, the cup lid 2 is equipped with a cup lid control system, the base 3 is equipped with a base control system, the hydrogen generation device is electrically connected to the base control system, and the cup lid control system is wirelessly connected to the base control system.

[0031] In this embodiment, the cup lid 2 mainly includes a cup lid outer shell 211, a cup lid circuit board 231, and a cup lid internal support. The cup lid internal support is fixedly installed inside the cup lid outer shell 211, and the cup lid circuit board 231 is fixedly installed on the cup lid internal support. The cup lid outer shell 211 plays a major protective and decorative role for the cup lid.

[0032] The internal support of the cup lid mainly includes a main cup lid support 221 and an upper cup lid support 222. The upper cup lid support 222 is fixedly installed above the main cup lid support 221. The main cup lid support 221 is fixedly installed inside the cup lid outer shell 211. A cup lid circuit board support 224 is fixedly installed below the main cup lid support 221. The cup lid circuit board 231 is fixedly installed on the cup lid circuit board support 224. The cup lid circuit board 231 is provided with a cup lid control button 234 and a cup lid charging port 233. A cup lid keycap 214 is installed on the cup lid outer shell 211 at the position corresponding to the cup lid control button 234. A cup lid charging port cover 215 is installed on the cup lid outer shell 211 at the position corresponding to the cup lid charging port 233. A cup lid battery 232 is fixedly installed inside the upper cup lid support 222. The cup lid battery 232 is electrically connected to the cup lid circuit board 231 and is used to supply power to the cup lid circuit board 231.

[0033] In this embodiment, a protective cover 227 for the cup lid charging port is fixedly installed on the cup lid circuit board 231 at the position corresponding to the cup lid charging port 233, which protects the cup lid charging port 233 and the cup lid control button 234.

[0034] In this embodiment, a cup lid LED light (not shown in the figure) is provided on the cup lid circuit board 231. The cup lid LED light is preferably an RGB three-color LED, and the cup lid LED light is arranged in a ring at the bottom of the cup lid circuit board 231.

[0035] In this embodiment, the cup lid main support 221 and the cup lid circuit board support 224 are made of transparent or semi-transparent light-transmitting materials, and the cup body 1 can be made of transparent (such as glass) or semi-transparent materials. During operation, the light emitted by the cup lid LED light can pass through the cup lid circuit board support 224 and shine into the cup body 1, illuminating the liquid inside and producing a dazzling effect, increasing the aesthetics and technological feel of the product.

[0036] The top of the cup body 1 is fitted with an outer shell 16, which serves to protect and decorate the top of the cup body 1.

[0037] In this embodiment, the outer shell 211 of the cup lid and the upper shell 16 of the cup body are made of opaque materials such as aluminum alloy and stainless steel. During assembly, a certain gap (about 2mm) is left between the outer shell 211 of the cup lid and the upper shell 16 of the cup body. When the LED light inside the cup lid 2 is lit, the light emitted by the LED light can pass through the main support 221 of the cup lid to form a halo in the gap between the outer shell 211 of the cup lid and the upper shell 16 of the cup body, which increases the aesthetics and technological feel of the product.

[0038] In this embodiment, a cup lid display screen 223 is fixedly installed above the cup lid support 222. The cup lid display screen 223 is electrically connected to the cup lid circuit board 231. The cup lid circuit board 231 outputs control signals to the cup lid display screen 223 to output display information to the cup lid display screen 223. A display screen touch panel 213 is fixedly installed on the cup lid outer shell 211. The display screen touch panel 213 and the cup lid display screen 223 are attached together to form a touch display screen structure, which can control the use of the present invention by touch. In this embodiment, a cup lid sealing ring 225 is fitted on the cup lid main support 221, which can play a role in sealing and waterproofing. In this embodiment, a cup lid inner cover 226 is fixedly installed at the bottom of the cup lid main support 221. The inner surface of the cup lid inner cover 226 is provided with a cup lid inner cover air guide groove 2261.

[0039] In this embodiment, a vent hole 2211 is provided on the main support of the cup lid 221. A waterproof and breathable membrane 256 is fixedly installed at the vent hole 2211, which allows gas in the cup body 1 to be discharged through the waterproof and breathable membrane 256. At the same time, it can prevent water in the cup body 1 from entering the cup lid 2 and causing damage to the circuit.

[0040] In this embodiment, an automatic pressure relief valve is provided on the cup lid 2. When the pressure inside the cup body 1 is too high, the pressure inside the cup can be released through the automatic pressure relief valve to prevent damage to the hydrogen-rich cup. The automatic pressure relief valve is fixedly installed inside the main support 221 of the cup lid. In this embodiment, the automatic pressure relief valve mainly includes a cup-lid pressure relief valve body 251, a cup-lid pressure relief valve core 252, a cup-lid pressure relief valve washer 253, a cup-lid pressure relief valve spring 254, and a cup-lid pressure relief valve fixing component 255. A first pressure relief hole 2511 is provided at the bottom of the cup-lid pressure relief valve body 251. A flange 2521 is fixedly installed on the cup-lid pressure relief valve core 252, which is inserted into the cup-lid pressure relief valve body 251. A gap is left between the lower part of the cup-lid pressure relief valve core 252 and the side wall of the first pressure relief hole 2511 for ventilation. The cup-lid pressure relief valve washer 253 is fitted onto the cup-lid pressure relief valve core 252 and is positioned between the cup-lid pressure relief valve body 251 and the cup-lid pressure relief valve core 252, i.e., cup-lid pressure relief. The valve gasket 253 is located below the flange 2521. During normal operation, the first pressure relief hole 2511 can be covered by the gasket 253. The pressure relief valve spring 254 is fitted onto the pressure relief valve core 252, meaning the pressure relief valve spring 254 is located above the flange 2521. The pressure relief valve fixing part 255 is fixedly installed on the top of the pressure relief valve core 252. The pressure relief valve spring 254 is located between the pressure relief valve fixing part 255 and the pressure relief valve core 252. When the pressure inside the cup body 1 is too high, the air pressure inside the cup body 1 will push the pressure relief valve core 252 outward, and the pressure relief valve core 252 will squeeze the pressure relief valve spring 254, thereby releasing the excess pressure at the pressure relief valve to prevent damage to the hydrogen-rich cup. In this embodiment, the pressure inside the cup body 1 of the hydrogen-rich cup can be adjusted by the pressure of the pressure relief valve spring 254 on the cup lid. During production, a cup lid pressure relief valve spring 254 with a suitable pressure can be selected to adjust the pressure inside the cup body 1 of the hydrogen-rich cup. That is, different cup lid pressure relief valve springs 254 are selected according to different pressure requirements. In this embodiment, the automatic pressure relief pressure is usually set to 3~5 kgf / cm². 2 The pressure is approximately 3-5 bar (or 0.3-0.5 MPa). Conventional hydrogen-rich cups typically have an internal pressure of around 1 kg, resulting in a hydrogen solubility of only 500-1000 ppb, which is relatively low. This invention employs an internal pressurization structure to increase hydrogen solubility, typically to 8000-10000 ppb. To prevent damage to the cup body due to excessive pressure, this invention has a pressure relief limit; if the set pressure is exceeded, automatic pressure relief will occur.

[0041] Because the pressure inside the cup body 1 is relatively high, the cup lid 2 may not be easy to open. To prevent this from happening, in this embodiment, an electromagnetic pressure relief valve 242 is fixedly installed on the cup lid circuit board bracket 224. A silicone plug 241 is connected to the electromagnetic pressure relief valve 242 through a connecting shaft 243. The silicone plug 241 is positioned on the side of the cup lid pressure relief valve body 251. A second pressure relief hole 2512 is provided on the side of the cup lid pressure relief valve body 251, and the silicone plug 241 is positioned at the location of the second pressure relief hole 2512. In this embodiment, the top of the silicone plug 241 is designed as a pointed shape (in this embodiment, it is designed as a cone shape). The second pressure relief hole 2512 matches the shape of the top of the silicone plug 241. During the hydrogen production process, the electromagnetic pressure relief valve 242 pushes the silicone plug 241 to block the second pressure relief hole 2512. It works together with the above-mentioned automatic pressure relief valve to ensure the high pressure state in the cup body 1. After the hydrogen production is completed, the electromagnetic pressure relief valve 242 pulls the silicone plug 241 to release the second pressure relief hole 2512, automatically releasing the high pressure in the cup body 1 to the normal gas pressure, which facilitates the opening of the cup lid 2.

[0042] During normal hydrogen production, the electromagnetic pressure relief valve 242 pushes the silicone plug 241 to block the second pressure relief hole 2512, and the valve core 252 of the cup lid pressure relief valve pushes the cup lid pressure relief valve washer 253 downward to block the top of the first pressure relief hole 2511. When the pressure inside the cup body 1 exceeds the set pressure, the gas pressure inside the cup body 1 will push up the cup lid pressure relief valve washer 253, thereby achieving automatic pressure relief. When hydrogen production is completed, the electromagnetic pressure relief valve 242 pulls the silicone plug 241 to open the second pressure relief hole 2512. The gas pressure inside the cup body 1 is released through the bottom of the first pressure relief hole 2511 and the second pressure relief hole 2512, thereby achieving the same pressure as the external atmospheric pressure, which facilitates the opening operation.

[0043] In this embodiment, a vent cover 216 is fixedly installed on the main support 221 of the cup lid. The air pressure that is released through the automatic pressure relief valve can be discharged to the outside of the cup lid 2 through the vent cover 216.

[0044] In this embodiment, the base 3 mainly includes a base shell 311, an internal support frame, a hydrogen production device, and a base circuit board 331. The internal support frame is fixedly installed inside the base shell, and the hydrogen production device and the base circuit board 331 are fixedly installed on the internal support frame. The base shell 311 can be made of opaque materials such as aluminum alloy or stainless steel.

[0045] In this embodiment, the main support body inside the base is the base main support 321. The base circuit board 331 is fixedly installed at the bottom of the base main support 321. A base light board 333 is fixedly installed inside the base main support 321. A first base LED light is provided on the base light board 333. The first base LED light is preferably an RGB tri-color LED. The first base LED light is arranged in a ring on the base light board 333. The base light board 333 is electrically connected to the base circuit board 331, and the base light board 333 is controlled to light up by the base circuit board 331. A base control button 334 and a base charging port 335 are fixedly installed on the base circuit board 331. A base keycap 313 is installed on the base outer shell 331 corresponding to the position of the base control button 334. A base charging port cover 314 is provided on the base outer shell 331 corresponding to the position of the base charging port 335. In this embodiment, a base charging port protective cover 324 is installed on the base circuit board 331 corresponding to the position of the base charging port 335, which can protect the base charging port 335 and the base control button 334. In this embodiment, a base battery 332 is installed inside the main support 321 of the base. The base battery 332 is electrically connected to the base circuit board 331, and supplies power to the base circuit board 331 through the base battery 332. In this embodiment, a second base LED (not shown in the figure) is provided on the base circuit board 331. The second base LED is preferably an RGB tri-color LED, and the second base LED is arranged in a ring at the bottom of the base circuit board 331. In this embodiment, a small through hole is provided in the base outer shell 311, and a base working indicator light 36 is provided on the base circuit board 331 corresponding to the position of the small through hole.

[0046] In this embodiment, an electrolytic cell water storage tank 323 is installed inside the main support 321 of the base. The electrolytic cell water storage tank 323 can serve as a clean water guide tank for storing clean water for use in hydrogen electrolysis. A screw plug 322 is provided above the electrolytic cell water storage tank 323. The screw plug 322 can be used to cover the screws above and also to seal the electrolytic cell water storage tank 323.

[0047] In this embodiment, a cup cavity is formed inside the cup body 1 for holding drinking water. The top of the cup body 1 is provided with a cup mouth thread 15, which is used to connect the cup lid 2 by means of a thread, making it easy to open and close. A cup body connecting seat 11 is installed at the bottom of the cup body 1, and the cup body 1 is detachably installed to the base 3 through the cup body connecting seat 11. Specifically, the cup body connecting seat 11 and the base 3 are connected by a thread, and the main support 321 of the base is provided with an external thread, and the cup body connecting seat 11 is provided with an internal thread. The cup body connecting seat 11 is covered with a lower outer shell 14 of the cup body. During assembly, the upper part of the lower outer shell 14 of the cup body aligns with the cup body 1, and the lower part of the lower outer shell 14 of the cup body aligns with the base outer shell 331 of the base 3.

[0048] In this embodiment, the bottom of the cup body 1 is also provided with a hydrogen mixing nano-cutting membrane 12. The hydrogen mixing nano-cutting membrane 12 can be a nano-permeable membrane used to isolate the water in the upper and lower chambers. The upper chamber (the inner part of the cup body 1) is a hydrogen dissolving chamber used to hold drinking water; the lower chamber (the inner part of the base 3) is a hydrogen generating chamber (or electrolysis chamber) used to hold electrolyzed water. The hydrogen mixing nano-cutting membrane 12 can allow the hydrogen gas generated by electrolysis in the base 3 to permeate into the cup cavity of the upper cup body 1. At the same time, the hydrogen mixing nano-cutting membrane 12 achieves the purpose of isolating the water in the hydrogen generating chamber from the water in the cup cavity of the cup body 1.

[0049] In this embodiment, the hydrogen-mixed nano-cutting membrane 12 is installed at the bottom of the cup body 1 using a hydrogen-mixed nano-cutting membrane fixing bracket 13. The hydrogen-mixed nano-cutting membrane fixing bracket 13 includes a hydrogen-mixed nano-cutting membrane upper mounting seat 131 disposed in the cup cavity of the cup body and a hydrogen-mixed nano-cutting membrane lower mounting seat 132 disposed at the bottom of the cup body 1. The hydrogen-mixed nano-cutting membrane lower mounting seat 132 is located inside the cup body connecting seat 11, and the hydrogen-mixed nano-cutting membrane 12 is embedded in the hydrogen-mixed nano-cutting membrane lower mounting seat 132. During installation, the screw passes through the hydrogen-mixed nano-cutting membrane lower mounting seat 132, the cup body connecting seat 11, and the bottom of the cup body 1 in sequence, and is then inserted into the screw hole on the hydrogen-mixed nano-cutting membrane upper mounting seat 131 to complete the fixed installation. Correspondingly, the bottom of the cup body 1 is provided with screw holes for the screws to pass through. To prevent water leakage, a washer 133 is also installed at the bottom of the cup body 1. The washer 133 is provided with a water-proof through-hole plug corresponding to the screw hole.

[0050] In this embodiment, the cup body connecting seat 11, the upper mounting seat 131 of the mixed hydrogen nano-cutting membrane, the lower mounting seat 132 of the mixed hydrogen nano-cutting membrane, the screw plug 322, and the water storage tank 323 of the electrolytic cell are made of transparent or semi-transparent light-transmitting materials. During operation, the light emitted by the first base LED light of the base light plate 333 can pass through the above-mentioned components and illuminate the inside of the cup body 1, illuminating the liquid inside and producing a dazzling effect, increasing the aesthetics and technological feel of the product.

[0051] In this embodiment, a reflector cup 341 is provided below the base circuit board 331, and a bottom light guide ring 342 is provided on the outside of the reflector cup 341. The bottom light guide ring 342 is an externally visible component. The LED light at the bottom of the base circuit board 331 is located between the reflector cup 341 and the bottom light guide ring 342. The surface of the reflector cup 341 is electroplated bright silver. Part of the light emitted by the LED light at the bottom of the base circuit board 331 directly enters the bottom light guide ring 342, and the part that is directed toward the reflector cup 341 is reflected by the reflector cup 341 and then enters the bottom light guide ring 342. The light is projected onto the table surface through the bottom light guide ring 342, forming a uniform light ring, which increases the aesthetics and technological feel of the product.

[0052] A base cover 343 is fixedly installed on the bottom of the base housing 311. The base cover 343 is fixedly installed together with the base main support 321. A base silicone anti-slip pad 312 is fixedly installed on the bottom of the base cover 343. A base exhaust port 3121 is provided on the base silicone anti-slip pad 312, which can be used to discharge the oxygen generated in the hydrogen production process through the base exhaust port 3121.

[0053] In this embodiment, the hydrogen production device is fixedly installed inside the main support 321 of the base. The hydrogen production device mainly includes an upper cover 351 for fixing the electrolyzer, a lower cover 352 for fixing the electrolyzer, a first electrode plate 353, a second electrode plate 355, and a proton exchange membrane 354 for the electrolyzer. The lower cover 352 for fixing the electrolyzer is fixedly installed inside the main support 321 of the base. An electrolyzer is formed on the lower cover 352. The first electrode plate 353, the proton exchange membrane 354, and the second electrode plate 355 are stacked in the electrolyzer. The proton exchange membrane 354 is disposed between the first electrode plate 353 and the second electrode plate 355. The first electrode plate 353 is disposed between the first electrode plate 353 and the second electrode plate 355. In the upper layer, the second electrode plate 355 is disposed in the lower layer. The upper cover 351 of the electrolytic cell is fixedly installed above the lower cover 352 of the electrolytic cell. The upper cover 351 fixes the first electrode plate 353, the proton exchange membrane 354, and the second electrode plate 355 into the electrolytic cell on the lower cover 352. The lower cover 352 contains the negative electrode and the positive electrode of the electrolytic cell. The negative electrode is electrically connected to the first electrode plate 353, and the positive electrode is electrically connected to the second electrode plate 355. Power is supplied to the first electrode plate 353 and the second electrode plate 355 through the negative electrode and the positive electrode. In this embodiment, the negative electrode and the positive electrode are screw-type, but other forms can also be used in specific implementations.

[0054] In this embodiment, an electrolytic cell sealing silicone 356 is provided inside the electrolytic cell on the electrolytic cell fixing cover 352. The electrolytic cell sealing silicone 356 is located below the second electrode plate 355, which serves as a support and, in conjunction with the electrolytic cell proton membrane 354, can achieve a sealing and waterproofing function.

[0055] In this embodiment, the bottom of the electrolytic cell fixing cover 352 is a hollow cylindrical tube with external threads. The hollow cylindrical tube is inserted into the base main support 321. A fixing nut 3512 is provided below the base main support 321. The fixing nut 3512 is located on the external threads of the hollow cylindrical tube. The electrolytic cell fixing cover 352 is fixedly installed in the base main support 321 by the fixing nut 3512.

[0056] In this embodiment, the bottom of the electrolytic cell fixing cover 352 is fitted with an electrolytic cell waterproof silicone 357, which is disposed between the electrolytic cell fixing cover 352 and the base main support 321.

[0057] In this embodiment, an exhaust valve 3511 is installed inside the hollow cylindrical portion at the bottom of the electrolytic cell fixing cover 352. An exhaust valve silicone 3510 is installed inside the exhaust valve 3511. In this embodiment, the exhaust valve silicone 3510 is ultrasonically welded to the inner side of the oxygen vent at the bottom of the electrolytic cell fixing cover 352. An electrolytic cell waterproof and breathable membrane 359 is attached to the inner side of the exhaust valve silicone 3510. The electrolytic cell waterproof and breathable membrane 359 is a one-way waterproof and breathable membrane, allowing oxygen generated during electrolysis to be discharged through it, while preventing water from escaping through this opening, thus achieving a waterproof and breathable function. An exhaust pipe 358 is connected to the exhaust valve 3511, connecting to the base exhaust port 3131. Oxygen can be conducted through the exhaust pipe 358 to the base exhaust port 3131 for discharge.

[0058] In this invention, the cup lid 2 and the base 3 are each equipped with an independent control system and a power supply system, which operate independently. The control system within the cup lid 2 is defined as the cup lid control system, and the control system within the base 3 is defined as the base control system. The cup lid control system and the base control system can be connected wirelessly via Bluetooth, RF, or other wireless connection methods to achieve wireless communication. During use, control commands can be input through the cup lid 2 and then transmitted to the base control system through the cup lid control system to control hydrogen production and light emission, thus achieving synchronized light emission in the cup lid 2 and base 3. Alternatively, control commands can be input through the base 3 and then transmitted to the cup lid control system through the base control system to control its light emission, achieving synchronized light emission in the cup lid 2 and base 3. The cup lid 2 and base 3 are each equipped with a battery and a charging interface, which are used for power supply and charging operations, respectively.

[0059] This invention operates in the following modes: I. Hydrogen production mode, available in three-minute, six-minute, and nine-minute options. Users can freely select the mode based on their desired concentration. The following example uses the three-minute mode and includes the following steps: (1) The cup lid 2 sends a control signal, and the base 3 receives the signal to start the hydrogen production 3-minute mode and start the hydrogen production process; (2) The cup lid 2 and the base 3 light up: Starting from no light, the LED is independently managed by the lighting effect system and can run simultaneously with any lighting effect mode.

[0060] (3) The hydrogen production ends after 3 minutes of timing, without affecting the current lighting effect mode or navigation status.

[0061] The six-minute and nine-minute working modes are the same as the three-minute modes, the difference being the length of the timing period.

[0062] II. Lighting Mode (Lum): This mode is a lighting effect mode that works in conjunction with the hydrogen production mode and includes the following methods: A. Operating Mode (i.e., Sol): This mode lasts for 3 minutes, and the lighting, including the lights on the lid 2 and the base 3, operates synchronously, including the following steps: (1) The lake blue (i.e., Blue Teal) light remained on for 59 seconds; (2) Cross fade for 1 second to the next color, i.e., blue-violet (i.e., Periwinkle Blue). (3) The blue-violet (i.e., Periwinkle Blue) light remained on for 59 seconds; (4) Cross fade for 1 second to the next color, i.e., soft pearl white; (5) The pearl white (i.e., soft pearl white) light remains on for 58 seconds; (6) The lights dim and turn off in 2 seconds.

[0063] B. Idle Mode (Dusk): This mode runs for 6 minutes, with the lights, including the cup lid light 2 and the base light 3, operating synchronously. It includes the following steps: (1) The warm pink light remained on for 119 seconds; (2) Cross fade for 1 second to the next color, i.e., light peach (i.e., Warm Amber). (3) The light pink (i.e., Warm Amber) light remained on for 119 seconds; (4) Cross fade for 1 second to the next color, namely deep red; (5) The deep red light remains on for 118 seconds; (6) The lights dim and turn off in 2 seconds.

[0064] C. Start Mode (Dawn): This mode lasts for 9 minutes, and the lights, including the lights on the lid 2 and the base 3, operate synchronously, including the following steps: (1) The deep red (i.e., embers) light stays on for 179 seconds; (2) Cross fade for 1 second to the next color, i.e., light peach (i.e., Warm Amber). (3) The light pink (i.e., Warm Amber) light remained on for 179 seconds; (4) Cross fade for 1 second to the next color, i.e., soft peach. (5) The soft peach light remains on for 118 seconds; (6) The lights dim and turn off in 2 seconds.

[0065] D. Sleep Mode (Moon): This mode lasts for 9 minutes, and the lights, including the lights on the lid 2 and the base 3, operate synchronously, including the following steps: (1) The deep red (i.e., embers) light stays on for 25 seconds; (2) Cross fade for 1 second to the next color, i.e., softened plum (i.e., Muted Plum). (3) Soften the plum color (i.e., Muted Plum) light and keep it on for 5 seconds; (4) Cross fade for 1 second to the next color, namely Deep Red (embers); (5) Repeat this process until 2 seconds before the end; (6) The lights dim and turn off in 2 seconds.

[0066] III. Breath Mode: This mode features lighting effects and works in conjunction with the hydrogen production mode. It includes the following modes: A. Calm Mode: This mode lasts for 6 minutes, with synchronized lighting from the lid (2) and base (3), including the following steps: (1) The light pink (i.e., Warm Amber) light stays on for 4 seconds; (2) Cross fade for 1 second to the next color, i.e., soft peach. (3) Keep the soft peach light on for 6 seconds; (4) Cross fade for 1 second to the next color, i.e., light peach (i.e., Warm Amber). (5) Repeat this process until 2 seconds before the end; (6) The lights dim and turn off in 2 seconds.

[0067] B. Focus Mode: This mode lasts for 3 minutes, with synchronized lighting from the lid (2 lights) and base (3 lights), and includes the following steps: (1) The blue-green light (i.e., Blue Teal) remains on for 4 seconds; (2) Cross fade for 1 second to the next color, i.e., soft pearl white; (3) The pearl white (i.e., soft pearl white) light remains on for 4 seconds; (4) Cross fade for 1 second to the next color, i.e., blue teal. (5) Repeat this process until 2 seconds before the end; (6) The lights dim and turn off in 2 seconds.

[0068] C. Energy Mode: This mode lasts for 3 minutes, with synchronized lighting from the lid (2 lights) and base (3 lights), and includes the following steps: (1) The deep red light stays on for 4 seconds; (2) Cross fade for 1 second to the next color, i.e., light gold (i.e., soft gold); (3) The soft gold light stays on for 2 seconds; (4) Cross fade for 1 second to the next color, namely deep red; (5) Repeat this process until 2 seconds before the end; (6) The lights dim and turn off in 2 seconds.

[0069] D. Repair Mode (Restore): This mode lasts for 9 minutes, and the lighting, including the lights on the lid 2 and the base 3, is synchronized. It includes the following steps: (1) The standard green light (i.e., True Green) remains on for 4 seconds; (2) Cross fade for 1 second to the next color, i.e., warm pink. (3) The warm pink light remains on for 8 seconds; (4) Cross fade for 1 second to the next color, i.e., standard green (i.e., True Green). (5) Repeat this process until 2 seconds before the end; (6) The lights dim and turn off in 2 seconds.

[0070] IV. Operating Mode (i.e. Being) includes the following two situations: Operating Mode 1 (Being1) is a lighting effect mode that works in conjunction with the hydrogen production mode and includes the following modes: A. Unified Mode (i.e., Unity): This mode runs for 9 minutes, with lighting including synchronized lighting on the lid (2 lights) and the base (3 lights). It includes the following steps: (1) The violet light remains on for 4 seconds; (2) Cross fade for 1 second to the next color, i.e., soft pearl white; (3) The pearl white (i.e., soft pearl white) light remains on for 8 seconds; (4) Cross fade for 1 second to the next color, i.e. violet. (5) Repeat this process until 2 seconds before the end; (6) The lights dim and turn off in 2 seconds.

[0071] B. Comfort Mode (Heart): This mode lasts for 6 minutes, and the lighting, including the lights on the lid 2 and the base 3, operates synchronously, including the following steps: (1) The standard green light (i.e., True Green) remains on for 5 seconds; (2) Cross fade for 1 second to the next color, i.e., soft pearl white; (3) The pearl white (i.e., soft pearl white) light remains on for 5 seconds; (4) Cross fade for 1 second to the next color, i.e., standard green (i.e., True Green). (5) Repeat this process until 2 seconds before the end; (6) The lights dim and turn off in 2 seconds.

[0072] C. Truth Mode: This mode lasts for 6 minutes, with synchronized lighting from the lid (2) and base (3), and includes the following steps: (1) The blue-green light (i.e., Blue Teal) remains on for 4 seconds; (2) Cross fade for 1 second to the next color, i.e. periwinkle blue. (3) The periwinkle blue light remains on for 4 seconds; (4) Cross fade for 1 second to the next color, i.e., blue teal. (5) Repeat this process until 2 seconds before the end; (6) The lights dim and turn off in 2 seconds.

[0073] D. Insight Mode: This mode lasts for 9 minutes, with synchronized lighting from the lid (2 lights) and base (3 lights), and includes the following steps: (1) The indigo light remained on for 4 seconds; (2) Cross fade for 1 second to the next color, i.e., softened plum (i.e., Muted Plum). (3) Soften plum color (i.e., Muted Plum) light stays on for 6 seconds; (4) Cross fade for 1 second to the next color, i.e., indigo. (5) Repeat this process until 2 seconds before the end; (6) The lights dim and turn off in 2 seconds.

[0074] Operating mode two (Being2) is a lighting effect mode that works in conjunction with the hydrogen production mode, and includes the following methods: A. Power-on mode: This mode lasts for 3 minutes, and the lights, including the cup lid light 2 and the base light 3, operate synchronously, including the following steps: (1) The light gold (i.e., soft gold) light stays on for 4 seconds; (2) Cross fade for 1 second to the next color, namely Solar Yellow; (3) The solar yellow light remains on for 2 seconds; (4) Cross fade for 1 second to the next color, i.e., light gold (i.e., soft gold). (5) Repeat this process until 2 seconds before the end; (6) The lights dim and turn off in 2 seconds.

[0075] B. Soft Light Mode (Lume): This mode lasts for 9 minutes, and the lighting, including the lights on the lid 2 and the base 3, is synchronized. It includes the following steps: (1) The deep red light remained on for 1.27 seconds; (2) Cross fade for 1 second to the next color, i.e., light peach (i.e., Warm Amber). (3) The light pink (i.e., Warm Amber) light remained on for 1.27 seconds; (4) Cross fade for 1 second to the next color, i.e., light gold (i.e., soft gold). (5) The soft gold light remained on for 1.27 seconds; (6) Cross fade for 1 second to the next color, i.e., standard green (i.e., True Green). (7) The standard green light (i.e., True Green) remains on for 1.27 seconds; (8) Cross fade for 1 second to the next color, i.e., blue teal. (9) The blue-green light remained on for 1.27 seconds; (10) Cross fade for 1 second to the next color, i.e., indigo. (11) The indigo light remained on for 1.27 seconds; (12) Cross fade for 1 second to the next color, i.e. violet. (13) The violet light remained on for 1.27 seconds; (14) Crossfade for 1 second to return to the initial deep red (i.e., Deep Red); (15) Repeat this process until 2 seconds before the end; (16) The lights dim and turn off in 2 seconds.

[0076] C. Rhythm Mode (Flow): This mode lasts for 3 minutes, with synchronized lighting from the lid (2) and base (3) lights, including the following steps: (1) The light pink (i.e., Warm Amber) light stays on for 4 seconds; (2) Cross fade for 1 second to the next color, i.e., light gold (i.e., soft gold); (3) The soft gold light stays on for 4 seconds; (4) Cross fade for 1 second to the next color, i.e., light peach (i.e., Warm Amber). (5) Repeat this process until 2 seconds before the end; (6) The lights dim and turn off in 2 seconds.

[0077] D. Rhythm Mode (Flow): This mode lasts for 3 minutes, with synchronized lighting from the lid (2) and base (3) lights, including the following steps: (1) The deep red light stays on for 4 seconds; (2) Cross fade for 1 second to the next color, i.e., light peach (i.e., Warm Amber). (3) The light pink (i.e., Warm Amber) light stays on for 6 seconds; (4) Cross fade for 1 second to the next color, namely deep red; (5) Repeat this process until 2 seconds before the end; (6) The lights dim and turn off in 2 seconds.

[0078] The colors mentioned above are custom colors defined by the applicant and may differ slightly from actual colors or common names. Reference values ​​for various colors are given below. These values ​​are for reference only. In specific implementations, any colors that are similar to those mentioned above fall within the scope of protection of this invention.

[0079]

[0080] In this embodiment, the cup lid 2 and the base 3 are wirelessly connected via Bluetooth as an example. In specific implementation, other wireless connection methods are similar. The cup lid 2 and the base 3 are already paired by default in this invention. If the user replaces the accessories or the connection fails during use, the pairing settings can be reset. When pairing via Bluetooth, press and hold the base button 313 on the base 3 for 3 seconds to turn on the base 3. Then press it 4 times in succession, and then press and hold the button again until the blue light inside the base 3 lights up and flashes. Press and hold the cup lid button 214 on the cup lid 2 for 3 seconds to turn on the cup lid 2. The cup lid 2 and the base 3 automatically enter the Bluetooth pairing mode. When the light on the base 3 is synchronized with the light on the cup lid 2, the cup lid 2 and the base 3 are successfully paired via Bluetooth.

[0081] When using this invention, first separate the cup body 1 from the base 3, inject 20ml of pure water into the electrolysis tank 323 in the base 3 and let it stand for more than 30 minutes, then combine the cup body 1 and the base 3 into one, that is, rotate the cup body connecting seat 11 and the base 3 and connect them into one by means of threaded connection, then inject drinking water into the cup cavity of the cup body 1 and screw on the cup lid 2.

[0082] Press and hold button 214 on the lid for 3 seconds to power on, simultaneously powering on base 3 via lid 2; or press and hold button 313 on the base for 3 seconds to power on, simultaneously powering on lid 2 via base 3. After lid 2 is powered on, the lid display screen 223 displays a startup animation and then enters the main menu. At this time, both lid 2 and base 3 are constantly lit with blue-green (Blue Teal) lights, and base 3 does not produce hydrogen.

[0083] (1-1) If the cup lid 2 is not operated within 10 seconds, the brightness of the cup lid display screen 223 and all lights will dim. After another 5 seconds, the cup lid display screen 223 will turn off until the machine is turned on again or the cup lid display screen 223 is touched.

[0084] (1-2) Within 10 seconds, click to select any main menu item, such as: Lumi / Breath / Being / H2. The product will then enter a secondary menu, as shown below: (1-2-1) Click the Lumi menu: The screen will jump to the next Lumi sub-menu, Moon / Dusk / Dawn / Sol; (1-2-1-1) Click on any mode in the secondary menu and the product will enter the corresponding working mode: animation playback + hydrogen production + light working mode; The Moon mode lasts for 9 minutes, with the lights on lid 2 and base 3 alternating between Deep Red (embers), Muted Plum, and Deep Red. The lights on base 3 turn off after 9 minutes of hydrogen production. The Dusk mode lasts for 6 minutes, with the lights on the lid 2 and base 3 alternating between Warm Pink, Warm Amber, and Warm Pink. The lights on base 3 turn off after 6 minutes of hydrogen production. The Sol mode lasts for 3 minutes, with the lights on lid 2 and base 3 alternating between Blue Teal, Periwinkle, and Soft Pearl Whit. The lights on base 3 turn off after 3 minutes of hydrogen production. The DAWN mode lasts for 9 minutes, with the lights on lid 2 and base 3 alternating between Deep Red (embers), Warm Amber, and Soft Peach. The lights on base 3 turn off after 9 minutes of hydrogen production. (1-2-2) Click the Breath menu: The screen will display the Breath sub-menu, Calm / Focus / Energy / Restore. (1-2-2-1) Click on any mode in the secondary menu and the product will enter the corresponding working mode: animation playback + hydrogen production + light working mode; Calm mode lasts for 6 minutes, with the lights on lid 2 and base 3 alternating between Warm Amber, Soft Peach, and Warm Amber; the lights on base 3 turn off after 6 minutes of hydrogen production. Focus mode lasts for 3 minutes, during which the lights on the lid 2 and base 3 alternate between Blue Teal, Soft Pearl, White, and Blue Teal; the lights on base 3 turn off after 3 minutes of hydrogen production. The Energy mode lasts for 3 minutes, during which the lights on the lid 2 and base 3 alternate between Deep Red, Soft Gold, and Deep Red. The lights on base 3 turn off after 3 minutes of hydrogen production. The Restore mode lasts for 9 minutes, during which the lights on the lid (2) and base (3) alternate between True Green, Warm Pink, and True Green. The lights on base (3) turn off after 9 minutes of hydrogen production. (1-2-3) Click the Being menu: The screen will jump to the second-level Being menu, Unity / Heart / Truth / Insight; swipe to reach the four options on the second page: Power / Lume / Flow / Ground; (1-2-3-1) Click on any mode in the secondary menu and the product will enter the corresponding working mode: animation playback + hydrogen production + light working mode; The Unity mode lasts for 9 minutes, with the lights on lid 2 and base 3 alternating between Violet, Soft Pearl, and White. The lights on base 3 turn off after 9 minutes of hydrogen production. Heart mode lasts for 6 minutes, with the lights on lid 2 and base 3 alternating between True Green, Soft Pearl, White, and True; the lights on base 3 turn off after 6 minutes of hydrogen production. The Truth mode lasts for 6 minutes, with the lights on lid 2 and base 3 alternating between Blue Teal and Periwinkle Blue and Blue Teal. The lights on base 3 will turn off after 6 minutes of hydrogen production. The Insight mode lasts for 9 minutes, with the lights on the lid 2 and base 3 alternating between Indigo, Muted Plum, and Indigo; the lights on base 3 turn off after 6 minutes of hydrogen production. In Power mode, the working time is 3 minutes, and the lights on the lid 2 and base 3 alternate between Soft Gold, Solar Yellow, and Soft Gold; the lights on base 3 turn off after 3 minutes of hydrogen production. The Lume mode lasts for 9 minutes, with the lights on lid 2 and base 3 alternating between Deep Red, Warm Amber, Soft Gold, Trun Green, Blue Teal, Indigo, Violet, and Deep Red. The lights on base 3 turn off after 9 minutes of hydrogen production. The Flow mode lasts for 3 minutes, during which the lights on the lid 2 and base 3 alternate between Warm Amber, Soft Gold, and Warm Amber; the lights on base 3 turn off after 3 minutes of hydrogen production. Ground mode lasts for 6 minutes, with the lights on lid 2 and base 3 alternating between Deep Red, Warm Amber, and Deep Red; the lights on base 3 turn off after 6 minutes of hydrogen production. (1-2-4) Click the H2 menu: The display screen enters the H2 secondary menu, and three hydrogen production options appear on the screen: 3:00 / 6:00 / 9:00; (1-2-4-1) Click on any mode in the secondary menu and the product will enter the corresponding working mode: animation playback + hydrogen production + light working mode; The 3:00 mode lasts for 3 minutes. The lights on the lid 2 and base 3 are: a slow, breathing soft pearl white. The lights turn off when the hydrogen production at the base ends after 3 minutes. The 6:00 mode lasts for 6 minutes. The lights on the lid 2 and base 3 are "Soft Peach" indicating slow breathing. The lights turn off when hydrogen production on the base 3 ends after 6 minutes. The 9:00 mode lasts for 9 minutes. The lights on the lid 2 and base 3 are in a slow, breathing Soft Gold color. The lights turn off when hydrogen production on the base 3 ends after 9 minutes. Note: In H2 3:00 minute mode, if you press the base button twice consecutively, the hydrogen production time will change to 6 minutes, the base will emit two beep sounds, the screen animation will switch to the 6-minute hydrogen production animation, and the light will switch to the slow breathing Soft Peach light; if you press the base button three times consecutively, the hydrogen production time will change to 9 minutes, the base will emit three beep sounds, the screen animation will switch to the 9-minute hydrogen production animation, and the light will switch to the slow breathing Soft Gold light; the base button can only increase the working time, not decrease it.

[0085] 2. Press and hold the button on the base to turn on: (2-1) Press and hold the button on the base 313 for 3 seconds to turn on the device. The buzzer will sound once. At the same time, the base 3 will turn on the cup lid 2 via Bluetooth control. The display will show 3 minutes. The soft pearl white lights on the cup lid 2 and the base 3 will slowly light up, and the product will enter the 3-minute hydrogen production mode. (2-2) Press the base keycap 313 twice in succession. The buzzer will sound twice. At the same time, the base 3 will turn on the cup lid 2 in sync with the Bluetooth control. The display will show 6 minutes. The soft peach lights on the cup lid 2 and the base 3 will light up slowly, and the product will enter the 6-minute hydrogen production mode. (2-3) Press the base keycap 313 three times in succession. The buzzer will sound three times. At the same time, the base 3 will turn on the cup lid 2 via Bluetooth control. The display will show 9 minutes. The soft gold lights on the cup lid 2 and the base 3 will slowly light up, and the product will enter the 9-minute hydrogen production mode. (2-4) When the base 3 is working independently and not connected to the cup lid 2 (when the battery of the top cover is depleted or it is not within Bluetooth coverage). (2-4-1) Press and hold the base keycap 313 for 3 seconds to power on. The buzzer will sound once, and the base light 3 will slowly light up in a soft pearl white pattern. The product will then enter the 3-minute hydrogen production mode. (2-4-2) Press the base keycap 313 twice in succession. The buzzer will sound twice, and the base light 3 will light up slowly in a soft breathing pattern. The product will enter the 6-minute hydrogen production mode. (2-4-3) Press the base keycap 313 three times in succession. The buzzer will sound three times, and the Soft Gold light on the base will slowly illuminate, indicating that the product has entered the 9-minute hydrogen production mode. 3. Low battery warning (3-1) Low battery warning: The Blue Teal light on the cup lid 2 or base 3 will flash slowly. (3-2) Low battery warning: The cup lid 2 or base 3 will slowly flash a Deep Red (embers) light; 4. Charging (4-1) After connecting the charging cable, the Soft Pearl White light on the cup lid 2 or the base 3 will light up; (4-2) During charging: The soft pearl white light on the cup lid 2 or base 3 remains constantly lit; (4-3) Fully charged: The soft pearl white light on the cup lid 2 or base 3 turns off.

[0086] This invention incorporates control systems within both the cup lid 2 and the base 3. These two control systems communicate wirelessly, greatly enhancing ease of use. Furthermore, the invention features internally integrated colorful LEDs that produce vibrant effects during use, increasing the product's aesthetic appeal and technological feel. Additionally, the cup lid 2 includes a touchscreen display for convenient display and operation.

Claims

1. A dual-end controlled hydrogen-rich cup, characterized in that: The hydrogen-rich cup includes a cup lid (2), a cup body (1), and a base (3). The base (3) is installed at the bottom of the cup body (1), the cup lid (2) is installed above the cup body (1), the hydrogen production device is installed inside the base (3), the cup lid (2) is equipped with a cup lid control system, the base (3) is equipped with a base control system, the hydrogen production device is electrically connected to the base control system, and the cup lid control system is wirelessly connected to the base control system.

2. The dual-end controlled hydrogen-rich cup according to claim 1, characterized in that: The cup lid (2) includes a cup lid shell, a cup lid circuit board (231) and a cup lid internal support. The cup lid internal support is fixedly installed inside the cup lid shell, and the cup lid circuit board (231) is fixedly installed on the cup lid internal support.

3. The dual-end controlled hydrogen-rich cup according to claim 2, characterized in that: The internal support of the cup lid includes a main cup lid support (221) and an upper cup lid support (222). The upper cup lid support (222) is fixedly installed above the main cup lid support (221), and the main cup lid support (221) is fixedly installed inside the outer shell of the cup lid. A circuit board support (224) is fixedly installed below the main cup lid support (221), and the circuit board (231) is fixedly installed on the circuit board support (224). The circuit board (231) is provided with a cup lid control button (234) and a cup lid charging port (233). The outer shell of the cup lid (211) has a corresponding control button. (234) A cup lid keycap (214) is installed at the position. A cup lid charging port cover (215) is installed on the outer shell (211) of the cup lid corresponding to the position of the cup lid charging port (233). A cup lid battery (232) is fixedly installed inside the cup lid bracket (222). The cup lid battery (232) is electrically connected to the cup lid circuit board (231). A cup lid LED light is provided on the cup lid circuit board (231). The cup lid LED light is arranged in a ring at the bottom of the cup lid circuit board (231). The cup lid main bracket (221) and the cup lid circuit board bracket (224) are made of transparent or semi-transparent light-transmitting material.

4. The dual-end controlled hydrogen-rich cup according to claim 2, characterized in that: The cup lid shell includes a cup lid shell (211) and a cup body upper shell (16), with a certain gap between the cup lid shell (211) and the cup body upper shell (16).

5. The dual-end controlled hydrogen-rich cup according to claim 2, characterized in that: A cup lid display screen (223) is fixedly installed above the cup lid support (222). The cup lid display screen (223) is electrically connected to the cup lid circuit board (231). A display screen touch panel (213) is fixedly installed on the cup lid shell (211).

6. The dual-end controlled hydrogen-rich cup according to claim 2, characterized in that: The cup lid main support (221) is fitted with a cup lid sealing ring (225). A cup lid inner cover (226) is fixedly installed at the bottom of the cup lid main support (221). A cup lid inner cover air guide groove (2261) is provided on the inner surface of the cup lid inner cover (226). A cup lid main support vent hole (2211) is opened on the cup lid main support (2211). A cup lid waterproof and breathable membrane (256) is fixedly installed at the position of the cup lid main support vent hole (2211). The cup lid (2) is... An automatic pressure relief valve is provided, comprising a cup lid pressure relief valve body (251), a cup lid pressure relief valve core (252), a cup lid pressure relief valve washer (253), a cup lid pressure relief valve spring (254), and a cup lid pressure relief valve fixing component (255). A first pressure relief hole (2511) is provided at the bottom of the cup lid pressure relief valve body (251). A flange (2521) is fixedly provided on the cup lid pressure relief valve core (252). The cup lid pressure relief valve core (252) is inserted into the cup lid. Inside the pressure relief valve body (251), the cup lid pressure relief valve washer (253) is fitted onto the cup lid pressure relief valve core (252). The cup lid pressure relief valve washer (253) is positioned between the cup lid pressure relief valve body (251) and the cup lid pressure relief valve core (252). The cup lid pressure relief valve spring (254) is fitted onto the cup lid pressure relief valve core (252). The cup lid pressure relief valve fixing part (255) is fixedly installed on the top of the cup lid pressure relief valve core (252). 254) An electromagnetic pressure relief valve (242) is fixedly installed on the cup lid circuit board bracket (224) between the cup lid pressure relief valve fixing part (255) and the cup lid pressure relief valve core (252). A silicone plug (241) is connected to the electromagnetic pressure relief valve (242) through the connecting shaft (243). A second pressure relief hole (2512) is opened on the side of the cup lid pressure relief valve body (251), and the silicone plug (241) is set at the position corresponding to the second pressure relief hole (2512).

7. The dual-end controlled hydrogen-rich cup according to claim 1, characterized in that: The base (3) includes a base shell, an internal support, a hydrogen production device, and a base circuit board (331). The internal support is fixedly installed inside the base shell, and the hydrogen production device and the base circuit board (331) are fixedly installed on the internal support.

8. The dual-end controlled hydrogen-rich cup according to claim 7, characterized in that: The main body of the internal support of the base is the base main support (321). The base circuit board (331) is fixedly installed at the bottom of the base main support (321). The base light board (333) is fixedly installed inside the base main support (321). The base light board (333) is provided with a first base LED light. The base light board (333) is electrically connected to the base circuit board (331). The base circuit board (331) is fixedly installed with a base control button (334) and a base charging port (335). The base outer shell (311) is installed with a base keycap (334) at the position corresponding to the base control button (334). 13) A base charging port cover (314) is provided on the base shell (311) at the position corresponding to the base charging port (335). A base battery (332) is installed inside the base main bracket (321). The base battery (332) is electrically connected to the base circuit board (331). A second base LED light is provided on the base circuit board (331). A reflector cup (341) is provided below the base circuit board (331). A bottom light guide ring (342) is provided on the outside of the reflector cup (341). The second base LED light is located between the reflector cup (341) and the bottom light guide ring (342).

9. The dual-end controlled hydrogen-rich cup according to claim 7, characterized in that: The bottom of the cup body (1) is equipped with a cup body connecting seat (11), and the cup body (1) is detachably installed with the base (3) through the cup body connecting seat (11); the bottom of the cup body (1) is also provided with a hydrogen-mixed nano-cutting membrane (12), which is fixedly installed in the hydrogen-mixed nano-cutting membrane fixing frame (13). The hydrogen-mixed nano-cutting membrane fixing frame (13) includes a hydrogen-mixed nano-cutting membrane upper mounting seat (131) set in the cup cavity of the cup body and a hydrogen-mixed nano-cutting membrane lower mounting seat (132) set at the bottom of the cup body (1). The hydrogen-mixed nano-cutting membrane lower mounting seat (132) is located in the cup body connecting seat (11), and the hydrogen-mixed nano-cutting membrane (12) is embedded in the hydrogen-mixed nano-cutting membrane lower mounting seat (132).

10. The dual-end controlled hydrogen-rich cup according to claim 7, characterized in that: An electrolyzer water tank (323) is installed inside the main support (321) of the base. A screw plug (322) is provided above the electrolyzer water tank (323). The hydrogen production device is fixedly installed inside the main support (321). The hydrogen production device includes an electrolyzer fixed upper cover (351), an electrolyzer fixed lower cover (352), a first electrode plate (353), a second electrode plate (355), and an electrolyzer proton membrane (354). The electrolyzer fixed lower cover (352) is fixedly installed inside the main support (321). An electrolyzer is provided on the electrolyzer fixed lower cover (352). The first electrode plate (353), the electrolyzer proton membrane (354), and the second electrode plate (355) are all located on the electrolyzer. Electrode plates (355) are stacked inside the electrolytic cell. The electrolytic cell proton exchange membrane (354) is disposed between the first electrode plate (353) and the second electrode plate (355). The first electrode plate (353) is disposed on the upper layer, and the second electrode plate (355) is disposed on the lower layer. The upper cover (351) of the electrolytic cell is fixedly installed above the lower cover (352) of the electrolytic cell. The negative electrode and the positive electrode of the electrolytic cell are inserted into the lower cover (352). The negative electrode of the electrolytic cell is electrically connected to the first electrode plate (353), and the positive electrode of the electrolytic cell is electrically connected to the second electrode plate (355). The electrolytic cell sealing silicone is disposed inside the electrolytic cell on the lower cover (352). (356) The electrolytic cell sealing silicone (356) is located below the second electrode plate (355). The bottom of the electrolytic cell fixing cover (352) is a hollow cylindrical tube with external threads. The hollow cylindrical tube is inserted into the base main support (321). A fixing nut (3512) is located below the base main support (321). The fixing nut (3512) is located on the external threads of the hollow cylindrical tube. The bottom of the electrolytic cell fixing cover (352) is fitted with electrolytic cell waterproof silicone (357). The electrolytic cell waterproof silicone (357) is located between the electrolytic cell fixing cover (352) and the base main support (321). An exhaust valve (3511) is provided inside the hollow cylindrical part at the bottom of the slot-fixed lower cover (352). An exhaust valve silicone (3510) is provided inside the exhaust valve (3511). An exhaust pipe (358) is connected to the exhaust valve (3511). A base cover (343) is fixedly installed at the bottom of the base shell (311). The base cover (343) is fixedly installed together with the base main support (321). A base silicone anti-slip pad (312) is fixedly installed at the bottom of the base cover (343). A base exhaust port (3121) is provided on the base silicone anti-slip pad (312). The exhaust pipe (358) is connected to the position of the base exhaust port (3121).

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