An office tea table

Abstract

The application discloses an office tea table, which comprises a tea table supporting base, a tea table storage panel, an office movable panel, a table top sliding rail mechanism, a tea tray embedding mechanism and a water boiling mechanism. The office movable panel slides horizontally relative to the tea table storage panel by the table top sliding rail mechanism. In the closed state, the office movable panel covers the tea tray embedding mechanism, thereby providing a flat table top space for office use. In the sliding expansion state, the office movable panel exposes the tea tray embedding mechanism below, thereby providing an operation area for tea brewing. The upper and lower stacked sliding cooperation structure integrates the office scene and the tea chatting scene in the same table body space, reduces the floor area of the furniture and improves the comprehensive utilization efficiency of the space.

Description

Technical Field

[0001] This application relates to the field of furniture manufacturing technology, and in particular to a storage office tea table. Background Technology

[0002] Currently, office desks and tea tables on the market are usually set up separately, which takes up a lot of indoor space and has a low space utilization rate. Some designs place tea sets directly on the surface of the office desk, which reduces the usable desktop area and poses a risk of tea spills on office documents. Existing multifunctional tea tables mostly use a flip-top structure, which is cumbersome to operate and makes it difficult to keep the desktop flat and smooth when working. Summary of the Invention

[0003] In order to improve the shortcomings of the existing technology where the separate office desk and tea table take up too much space, this application provides a storage office tea table.

[0004] The technical solution for a storage office tea table provided in this application is as follows: A storage office tea table includes a tea table support base, a tea table storage panel connected to the upper side of the tea table support base, an office movable panel disposed on the upper side of the tea table storage panel and movably connected to the tea table storage panel, a desktop slide rail mechanism disposed between the tea table storage panel and the office movable panel and respectively connected to the tea table storage panel and the office movable panel, a tea tray inlay mechanism embedded in the tea table storage panel and located between the office movable panel and the tea table storage panel, and a water boiling mechanism disposed on the tea table support base and located below the tea table storage panel.

[0005] By adopting the above technical solution, the office activity panel slides horizontally relative to the tea table storage panel using a desktop sliding mechanism. In the closed state, the office activity panel covers the tea tray mechanism, providing a flat desktop space for office use. In the slid-out state, the office activity panel exposes the tea tray mechanism below, providing an operating area for tea brewing. This layered sliding structure integrates the office scene and the tea gathering scene into the same table space, reducing the floor space occupied by furniture and improving the overall space utilization efficiency.

[0006] Preferably, the tea table support base includes a support body, a water storage cabinet connected to the support body, a water boiling cabinet connected to the support body and located on one side of the water storage cabinet, a water boiling sliding door assembly movably connected to the support body and fixedly connected at its end to the office activity panel, and a water boiling support platform connected to the water boiling cabinet and located below the tea table storage panel; the water boiling support platform, the tea table storage panel, and the support body are arranged to form a hidden water boiling cavity, and the water boiling sliding door assembly is located at the opening end of the hidden water boiling cavity.

[0007] By adopting the above technical solution, an independent water storage cabinet and a water boiling cabinet are set up inside the tea table support base, realizing the functional zoning of the internal space. The water storage cabinet is used to store water buckets, and the water boiling cabinet, together with the water boiling support platform, provides space for the heating equipment. The water boiling hidden cavity closes the water boiling equipment when not in use, keeping the tea table's exterior visually clean. At the same time, the water boiling sliding door component provides an opening channel when the water boiling equipment needs to be used, and prevents external dust from falling into the water boiling hidden cavity.

[0008] Preferably, the water-boiling sliding door assembly includes a first sliding component connected to the lower side of the tea table storage panel, a second sliding component connected to the water-boiling support platform and correspondingly arranged with respect to the first sliding component, a flexible curved sliding door movably connected to the first sliding component and the second sliding component respectively, and a switch linkage rod. The tea table storage panel has a linkage avoidance groove extending along the sliding direction of the office activity panel. The switch linkage rod is connected to the end of the flexible curved sliding door. The switch linkage rod passes upward through the linkage avoidance groove and is fixedly connected to the office activity panel. Both the first sliding component and the second sliding component extend to the side wall of the water storage cabinet.

[0009] By adopting the above technical solution, the switch linkage rod, as a connecting component for transmitting mechanical power, transmits the translational movement of the office panel to the flexible curved sliding door. The linkage avoidance groove provides interference-free displacement space for the horizontal movement of the switch linkage rod. When the office panel is pushed open, the switch linkage rod moves synchronously, thereby dragging the flexible curved sliding door along the track formed by the first and second sliding components into the space on one side of the water storage cabinet, opening the hidden water boiling cavity; when the office panel is closed, a reverse displacement occurs. The synchronous opening and closing structure achieved through mechanical rigid connection reduces the operation steps of separately pushing and pulling the desktop and the internal cabinet door, improving the continuity and convenience of the tea table opening and closing process.

[0010] Preferably, the water boiling mechanism includes an induction cooker assembly mounted on the water boiling support platform, a purified water tank inserted into the water storage tank, and a water inlet pipe assembly inserted into the purified water tank and extending above the induction cooker assembly.

[0011] By adopting the above technical solution, the induction cooker assembly, serving as the heating source, is fixed on the water boiling support platform, while the purified water tank is placed inside the water storage cabinet to provide the water source. The water inlet pipe assembly spans two cabinet areas, drawing and transferring purified water to the area above the induction cooker assembly for heating. This application physically separates the water storage and heating execution areas, reducing the space occupied by the water tank on the desktop operating area.

[0012] Preferably, the tea table storage panel is provided with a tea tray trough; the tea tray embedding mechanism includes a tea tray embedding component inserted into the tea tray trough, a wastewater conduit communicating with the tea tray trough and extending into the water storage tank, and a wastewater collection bucket inserted into the water storage tank and connected to the wastewater conduit.

[0013] By adopting the above technical solution, the tea tray recess provides a sunken placement space for the tea tray assembly, ensuring that the top surface of the assembly is lower than or flush with the top surface of the tea table storage panel, thus avoiding obstruction of the sliding of the overhead office panel. Wastewater generated during tea preparation collects within the tea tray assembly and drains downwards into a wastewater collection tank via a wastewater conduit. The wastewater collection tank is placed inside a water storage cabinet for centralized water management, maintaining dry and wet separation and cleanliness in the space under the tea table.

[0014] Preferably, the tea tray assembly has a water guide hole at the middle position that communicates with the tea tray groove, and the tea tray assembly also has a water guide slope located around the water guide hole and inclined downward toward the water guide hole.

[0015] By adopting the above technical solution, the downward-sloping water guide surface of the water guide hole uses gravity to guide the water or waste tea scattered on the surface of the tea tray component to flow to the low-lying area, and after collection, it is discharged into the waste water diversion pipe below through the water guide hole; this reduces the retention of tea on the surface of the tea tray component and reduces the amount of manual cleaning of the tabletop afterward.

[0016] Preferably, the tea table storage panel is further provided with a heat dissipation and air guiding component located between the office activity panel and the water boiling support; a air guiding gap communicating with the external space is provided between the tea table storage panel and the office activity panel; an air guiding groove is provided on the water boiling support for communicating with the water boiling hidden cavity and the external space; the heat dissipation and air guiding component is used to communicate with the air guiding gap and the water boiling hidden cavity; and the air guiding gap is communicated with the tea tray trough.

[0017] By adopting the above technical solution, the heat dissipation and air guiding components are configured to output downward driving airflow. When the flexible curved sliding door is in an open or closed state, the actively generated downward wind pressure drives the high temperature heat and moisture inside the air guiding gap, tea tray, and water boiling hidden cavity to move downward, and is concentrated and discharged to the external environment through the bottom air guiding channel. The active downward airflow exhaust structure of this application changes the transmission path of the naturally rising hot air, constructs a directional exhaust network, prevents the upward overflow of high temperature and water vapor from causing heat radiation interference to the desktop operating area, and removes the moisture accumulated in many spaces inside the tea table, reducing the risk of internal support components becoming damp and moldy and deformed by heat, maintaining the dry state of the internal space and the safety of the electrical module operation.

[0018] Preferably, the tea table storage panel is also provided with a tea utensil storage slot located on one side of the tea tray, and the tea utensil storage slot is located below the office activity panel.

[0019] By adopting the above technical solution, the tea set storage slot utilizes the thickness of the tea table's storage panel to provide storage space for teacups, tea brushes, and other tea-making utensils. When the office panel is in the closed storage state, it covers the tea set storage slot, serving as a dustproof shield; when the panel is unfolded, the operator can easily retrieve the tea set next to the tea tray, shortening the retrieval route.

[0020] Preferably, the upper side of the tea table storage panel is provided with a first tea table magnetic component located near the tea tray mechanism, a second tea table magnetic component located away from the tea tray mechanism, and a third tea table magnetic component located between the first and second tea table magnetic components; the lower side of the office activity panel is provided with a first office magnetic component located near the tea tray mechanism, a second office magnetic component located away from the tea tray mechanism, and a third office magnetic component located between the first and second office magnetic components; when the office activity panel is in the stored state, the first tea table magnetic component magnetically engages with the first office magnetic component, and the second tea table magnetic component magnetically engages with the second office magnetic component; when the office activity panel is in the unfolded state, the first office magnetic component magnetically engages with the third tea table magnetic component, and the third office magnetic component magnetically engages with the second tea table magnetic component.

[0021] By employing the above technical solution, the positioning and holding force is provided through the physical property of magnetic pole attraction. When the desktop is closed, the magnetic components at both ends attract each other, making it difficult for the office panel to slide horizontally when leaning against or working at the desk, thus ensuring the stability of the office desktop. When a pushing force is applied to overcome the magnetic attraction and push the desktop to its unfolded limit position, the first office magnetic component moves above the third tea table magnetic component and is attracted, and the third office magnetic component moves above the second tea table magnetic component and is attracted, completing the secondary magnetic positioning in the unfolded state. The dual-station magnetic node arrangement ensures that the tea table receives locking feedback in both working states, preventing the risk of the panel sliding and pinching fingers due to touch during use.

[0022] Preferably, the tea table storage panel is further provided with a sliding limiting protrusion extending along the direction close to the office activity panel, and the lower side of the office activity panel is further provided with a sliding gap limiting groove for the sliding limiting protrusion to be inserted into, the sliding gap limiting groove being provided along the sliding direction of the office activity panel.

[0023] By adopting the above technical solution, when the office panel is slid to its maximum extended position or fully retracted position, the sliding limit protrusion abuts against the inner walls of both ends of the sliding gap limit groove, forming a physical barrier. Combined with the magnetic suction component, the mechanical barrier of the sliding limit protrusion prevents the office panel from detaching from the desktop slide rail mechanism during push-pull operations, providing anti-derailment protection and improving the structural reliability of the coffee table during reciprocating opening and closing operations.

[0024] In summary, this application includes at least one of the following beneficial technical effects: 1. The office activity panel slides horizontally relative to the tea table storage panel using a desktop sliding mechanism. In the closed state, the office activity panel covers the tea tray mechanism, providing a flat desktop space for office use. In the unfolded state, the office activity panel exposes the tea tray mechanism below, providing an area for tea brewing. This layered sliding structure integrates the office scene and the tea gathering scene into the same table space, reducing the floor space occupied by furniture and improving the overall space utilization efficiency. 2. When the office panel is pushed open, the switch linkage rod moves synchronously, thereby dragging the flexible curved sliding door along the track formed by the first and second sliding components into the space on one side of the water storage cabinet, opening the hidden water boiling chamber; when the office panel is closed, the opposite displacement occurs. The synchronous opening and closing structure achieved through mechanical rigid connection reduces the operation steps of pushing and pulling the desktop and the internal cabinet door separately, improving the continuity and convenience of the tea table opening and closing process; 3. The heat dissipation and air guiding components are configured to output downward driving airflow. Whether the flexible curved sliding door is open or closed, the actively generated downward wind pressure drives the high-temperature heat and moisture inside the air guide gap, tea tray, and water boiling hidden cavity downward, and then concentrates and dissipates them to the external environment through the bottom air guide channel. The active downward airflow exhaust structure of this application changes the natural upward transmission path of hot air, constructs a directional exhaust network, prevents high temperature and water vapor from overflowing upward and causing heat radiation interference to the desktop operating area, and removes the moisture accumulated in many spaces inside the tea table, reducing the risk of internal support components becoming damp and moldy and deformed by heat, maintaining the dry state of the internal space and the safety of the electrical module operation. Attached Figure Description

[0025] Figure 1 This is a schematic diagram of the exploded structure of an embodiment of this application. Figure 1 .

[0026] Figure 2 This is a schematic diagram of the exploded structure of an embodiment of this application. Figure 2 .

[0027] Figure 3 This is a cross-sectional view of an embodiment of this application. Figure 1 .

[0028] Figure 4 This is a cross-sectional view of an embodiment of this application. Figure 2 .

[0029] Figure 5 This is a schematic diagram of the exploded structure of an embodiment of this application. Figure 3 .

[0030] Explanation of reference numerals in the attached figures: 1. Tea table support base; 11. Support base body; 12. Water storage cabinet; 13. Water boiling cabinet; 14. Water boiling sliding door assembly; 15. Water boiling support platform; 16. Water boiling hidden cavity; 141. First sliding component; 142. Second sliding component; 143. Flexible curved sliding door; 144. Switch linkage rod; 151. Air guide channel; 2. Tea table storage panel; 20. Linkage avoidance long slot; 21. Tea tray slot; 22. Heat dissipation and air guiding component; 23. Air guiding gap; 24. Tea set storage slot; 25. First tea table magnetic component; 26. Second tea table magnetic component; 27. Third tea table magnetic component; 28. Sliding limit protrusion; 3. Office activity panel; 31. First office magnetic suction component; 32. Second office magnetic suction component; 33. Third office magnetic suction component; 34. Sliding gap limit groove; 4. Desktop slide rail mechanism; 5. Tea tray embedded mechanism; 51. Tea tray embedded component; 52. Wastewater conduit; 53. Wastewater collection bucket; 511. Water guide hole; 512. Water guide slope; 6. Water boiling mechanism; 61. Induction cooker component; 62. Water purifier bucket; 63. Water inlet pipe component. Detailed Implementation

[0031] The following is in conjunction with the appendix Figures 1 to 5 This application will be described in further detail.

[0032] This application discloses a storage office tea table. (Refer to...) Figure 1 and Figure 2 A storage office tea table includes a tea table support base 1, a tea table storage panel 2, an office activity panel 3, a desktop sliding mechanism 4, a tea tray embedding mechanism 5, and a water boiling mechanism 6.

[0033] The tea table storage panel 2 of this application is connected to the upper side of the tea table support base 1. The desktop slide rail mechanism 4 is installed between the tea table storage panel 2 and the office activity panel 3, and the desktop slide rail mechanism 4 is fixedly connected to the tea table storage panel 2 and the office activity panel 3 respectively, so that the office activity panel 3 is movably connected to the upper side of the tea table storage panel 2. The tea tray embedding mechanism 5 is embedded in the tea table storage panel 2 and located between the office activity panel 3 and the tea table storage panel 2. The water boiling mechanism 6 is installed on the tea table support base 1 and located below the tea table storage panel 2. When the office tea table is in its closed state, the office movable panel 3 is positioned directly above the tea table storage panel 2 and covers the tea tray mechanism 5, providing a flat tabletop space for office work. When it is necessary to switch to the tea brewing mode, a horizontal pushing force is applied to the office movable panel 3. Under the mechanical guidance and support of the desktop sliding mechanism 4, the office movable panel 3 slides relative to the tea table storage panel 2 along the track path. As the office movable panel 3 slides open, the tea tray mechanism 5 hidden below the office movable panel 3 is exposed to the external space. The operator can directly use the tea tray mechanism 5 in conjunction with the water boiling mechanism 6 located below the tea table storage panel 2 to perform heating and brewing actions. The above-mentioned stacked physical sliding connection structure integrates the office work scenario and the tea brewing scenario into the same physical table space, reducing the physical footprint occupied by different single-function furniture, improving the comprehensive and composite utilization rate of the indoor space, and meeting the functional needs of frequently switching different application modes in a limited area.

[0034] Furthermore, such as Figure 2 and Figure 3 As shown, the tea table support base 1 of this application has a support body 11 inside. The water storage cabinet 12 and the water boiling cabinet 13 are respectively connected side by side to the support body 11. The water boiling support platform 15 is connected to the water boiling cabinet 13 and is located below the tea table storage panel 2. The water boiling support platform 15, the tea table storage panel 2 and the support body 11 together form a water boiling hidden cavity 16 in physical space. At the same time, the water boiling sliding door assembly 14 is movably connected to the support body 11 and is arranged at the opening end of the water boiling hidden cavity 16. The end of the water boiling sliding door assembly 14 is fixedly connected to the office activity panel 3. In use, a horizontal pushing force is applied to the office activity panel 3, causing it to slide horizontally. During this movement, the office activity panel 3 simultaneously pulls the water boiling sliding door assembly 14 onto the support body 11, causing it to slide mechanically. This allows the water boiling sliding door assembly 14 to retract from the opening of the water boiling hidden cavity 16, switching the water boiling hidden cavity 16 from a closed state to an open and exposed state. Pushing the office activity panel 3 in the opposite direction will cause the water boiling sliding door assembly 14 to cover and close the opening of the water boiling hidden cavity 16 again. The physical partitioning and mechanical linkage structure of this application spatially separates the water storage area from the heating operation area, providing an independent storage space for the internal water boiling equipment. This maintains the overall cleanliness of the product's external appearance and enables the synchronous opening and closing of the external office activity panel 3 and the internal water boiling sliding door assembly 14 during scene switching. This reduces the need for separate operation steps of pushing and pulling different components, improving the convenience and continuity of multi-mode operation of the equipment.

[0035] Furthermore, such as Figure 2 and Figure 4As shown, the water boiling sliding door assembly 14 includes a first sliding component 141, a second sliding component 142, a flexible curved sliding door 143, and a switch linkage rod 144.

[0036] In the water-boiling sliding door assembly 14 of this application, the first sliding component 141 is connected to the lower side of the tea table storage panel 2, the second sliding component 142 is connected to the water-boiling support platform 15 and is arranged correspondingly to the first sliding component 141, and both the first sliding component 141 and the second sliding component 142 extend to the side wall of the water storage cabinet 12. The flexible curved sliding door 143 is respectively assembled to the first sliding component 141 and the second sliding component 142 and is movably connected to the first sliding component 141 and the second sliding component 142. The switch linkage rod 144 is connected to the end of the flexible curved sliding door 143. The switch linkage rod 144 passes upward through the linkage clearance groove 20 opened on the tea table storage panel 2 and extends along the sliding direction of the office activity panel 3 and is fixedly connected to the office activity panel 3. When in use, a pushing force is applied to the office activity panel 3, causing the office activity panel 3 to slide relative to the tea table storage panel 2. This causes the switch linkage rod 144, which is fixedly connected to the office activity panel 3, to move synchronously within the linkage avoidance groove 20. In turn, the switch linkage rod 144 pulls the flexible curved sliding door 143 along the guide path formed by the first sliding component 141 and the second sliding component 142 towards the side wall of the water storage cabinet 12. The physical linkage connection structure of this application transforms the linear translational motion of the office activity panel 3 into the curved opening and closing displacement of the flexible curved sliding door 143. The linkage avoidance groove 20 provides a collision-free travel space for the horizontal movement of the switch linkage rod 144. The synchronous action of the office activity panel 3 and the flexible curved sliding door 143 is achieved through the mechanical transmission connection structure, reducing the steps of operating the external panel and the internal cabinet door separately, and improving the continuity and convenience of the storage office tea table in the multi-mode switching operation process.

[0037] The first sliding component 141 and the second sliding component 142 are both slide rails; the flexible curved sliding door 143 is preferably a roller shutter sliding door or a hinged folding door structure; the flexible curved sliding door 143 includes a flexible backing layer and multiple long strip door panels that are equally spaced and parallelly fixed on the flexible backing layer, with a reserved gap between the multiple long strip door panels to allow the flexible backing layer to bend and deform; the upper and lower ends of the flexible curved sliding door 143 are respectively slidably fitted into the first sliding component 141 and the second sliding component 142; during actual operation, when the flexible curved sliding door 143 is subjected to the opening and closing linkage rod 1 When the traction force is 44, the multiple long strip door panels rely on the bending deformation capability of the flexible backing layer to follow the physical track trajectory formed by the first sliding component 141 and the second sliding component 142 to make curved turns, thereby achieving wall-hugging sliding and storage within the internal side wall space of the water storage tank 12; the physical structure of the multiple strip door panels and the flexible backing layer of this application not only ensures the structural rigidity and external visual flatness of the flexible curved sliding door 143 in the straight blocking area, but also enables the door to have the ability to follow the curve transition in the corner and side wall areas, reducing the physical avoidance space required for the opening and closing of the door.

[0038] Specifically, such as Figure 3 As shown, the water boiling mechanism 6 includes an induction cooker assembly 61, a purified water tank 62, and a water inlet pipe assembly 63. In the water boiling mechanism 6 of this application, the induction cooker assembly 61 is fixedly arranged on the upper side of the water boiling support platform 15, the purified water tank 62 is placed on the bottom surface inside the water storage tank 12, the water inlet end of the water inlet pipe assembly 63 is inserted into the purified water tank 62, and the water outlet end of the water inlet pipe assembly 63 crosses the boundary of the water storage tank 12 and extends to the position directly above the induction cooker assembly 61. In actual use, by activating the water inlet pipe assembly 63 to generate negative pressure suction, the liquid purified water stored inside the purified water tank 62 is extracted. The liquid purified water is transported across zones along the fluid channels arranged inside the water inlet pipe assembly 63 and flows out from the water inlet pipe assembly 63. The water is discharged downward into the receiving container from the top end of the induction cooker assembly 61. The induction cooker assembly 61 then performs heat conduction heating on the liquid water in the receiving container. The physical space separation and cross-zone pipeline transmission of this application independently isolate the liquid water storage area and the heating execution area in terms of physical layout, reducing the space occupied by the water tank 62 on the desktop operation area and the heating operation area. It also avoids the liquid water inside the water storage cabinet 12 from being affected by the high-temperature heat radiation of the induction cooker assembly 61, and improves the comprehensive utilization rate of the modular space inside the storage office tea table and the operational safety of water-related and electrical equipment.

[0039] More specifically, such as Figure 2 , Figure 3 and Figure 5As shown, the tea table storage panel 2 is provided with a tea tray trough 21; the tea tray embedding mechanism 5 includes a tea tray embedding component 51, a wastewater conduit 52, and a wastewater collection bucket 53. In this application, the tea tray embedding component 51 is embedded in the internal space of the tea tray trough 21, the upper end of the wastewater conduit 52 is in fluid communication with the bottom of the tea tray trough 21, the wastewater conduit 52 extends downward across the physical partition and enters the interior of the water storage cabinet 12, and the wastewater collection bucket 53 is placed on the bottom surface inside the water storage cabinet 12, and the water inlet of the wastewater collection bucket 53 is connected to the water outlet at the lower end of the wastewater conduit 52. Waste liquid generated during tea brewing falls and collects inside the tea tray assembly 51 and tea tray trough 21 due to gravity. Subsequently, the waste liquid enters the wastewater conduit 52 through the fluid channel and flows naturally downward along the cavity of the wastewater conduit 52, discharging into and being stored in the wastewater collection tank 53 inside the water storage cabinet 12. The sunken physical space layout and gravity-guided discharge pipeline structure of this application provide a recessed accommodating space for the tea tray assembly 51, so that the top surface of the tea tray assembly 51 is not higher than the upper surface of the tea table storage panel 2, preventing physical interference with the horizontal sliding stroke of the upper office activity panel 3. At the same time, the waste fluid collection facility is hidden in the enclosed area inside the water storage cabinet 12, realizing the dry and wet isolation of the physical space under the storage office tea table and the centralized configuration of pipelines, maintaining the overall visual cleanliness of the equipment, and improving the convenience of centralized dumping and maintenance of waste liquid.

[0040] In addition, such as Figure 2 As shown, the tea tray assembly 51 is provided with a water guiding hole 511 and a water guiding slope 512. In the tea tray assembly 51 of this application, the water guiding hole 511 is located in the middle of the tea tray assembly 51, and the water guiding hole 511 is in fluid communication with the internal space of the tea tray trough 21 below. The water guiding slope 512 is arranged on the tea tray assembly 51 and surrounds the water guiding hole 511, and the water guiding slope 512 is arranged downward along the direction close to the water guiding hole 511. After the waste liquid generated during the brewing operation falls onto the tea tray assembly 51, the waste liquid is pulled down by its own gravity along the slope of the water guiding slope 512. The physical trajectory automatically converges and flows towards the low-lying water guide hole 511 area. The collected waste liquid then flows downward through the water guide hole 511 into the internal space of the tea tray trough 21. The physical structure of the inclined surface with high sides and low center of this application creates a passive gravity-guided discharge path, guiding the waste fluid to the central sewage discharge node for centralized discharge. This reduces the static retention of waste liquid on the surface of the tea tray component 51, accelerates the drainage flow rate of the waste fluid, and reduces the daily maintenance workload of subsequent manual wiping and cleaning of the table.

[0041] And, as Figure 2 and 3As shown, the tea table storage panel 2 is also provided with a heat dissipation and air guiding component 22; an air guiding gap 23 is provided between the tea table storage panel 2 and the office activity panel 3, and an air guiding groove 151 is provided on the water boiling support platform 15. In this application, the heat dissipation and air guiding component 22 is arranged on the tea table storage panel 2 and is located in the physical space between the office activity panel 3 and the water boiling support platform 15. The air guiding gap 23 is pre-formed between the tea table storage panel 2 and the office activity panel 3 and maintains fluid communication with the external environment space. The air guiding groove 151 is opened through the water boiling support platform 15 and connects the water boiling hidden cavity 16 with the bottom external space. The two ends of the heat dissipation and air guiding component 22 are respectively connected to the air guiding gap 23 and the water boiling hidden cavity 16, and the air guiding gap 23 is connected to the internal space of the tea tray trough 21. The heat dissipation air guide component 22 is configured to output downward driving airflow. When the flexible curved sliding door 143 is slid open, the downward airflow generated by the heat dissipation air guide component 22 blows the high temperature heat and water vapor generated by the heating equipment downward and dissipates them. When the flexible curved sliding door 143 is closed, the heat dissipation air guide component 22 continues to blow downward. The actively generated downward wind pressure drives the water vapor and moisture trapped inside the air guide gap 23, the tea tray trough 21, and the water boiling hidden cavity 16 to move downward and be concentrated and discharged to the external environment through the bottom air guide groove 151. The active downward airflow exhaust physical structure of this application changes the physical transmission path of the naturally rising hot air. It uses downward forced wind pressure to build a directional exhaust network, which prevents the high temperature and water vapor from overflowing upward and causing heat radiation interference to the desktop operating area. At the same time, in the closed state, it effectively removes the moisture accumulated in multiple physical spaces inside the tea table, reduces the risk of internal support components becoming damp and moldy and deformed by heat, and improves the dryness of the internal closed space and the safety of the electrical module operation.

[0042] The heat dissipation and airflow guiding component 22 is preferably a fan.

[0043] Furthermore, such as Figure 2As shown, the tea table storage panel 2 of this application has a tea utensil storage groove 24 recessed downwards on its surface. The tea utensil storage groove 24 is physically positioned adjacent to the tea tray trough 21 on one side, and vertically below the horizontal sliding trajectory of the office activity panel 3. When the tea table is in daily office mode, the office activity panel 3 slides and closes, covering the tea utensil storage groove 24 directly above it, forming a top-side physical shielding protection. When the operator switches to tea-making mode and pushes the office activity panel 3 horizontally outwards, the office activity panel 3 gradually moves horizontally... The teaware storage tray 24 slides away from the top area, exposing the internal storage space of the teaware storage tray 24 to the external environment. The sunken storage space layout and horizontal sliding cover structure of this application utilize the thickness of the tea table storage panel 2 to set up dedicated storage nodes for various scattered tea brewing utensils. In the closed and idle stage, the office activity panel 3 prevents external dust from falling in. In the unfolded and used stage, the operator can directly take the target utensils within the operating radius of the near end of the tea tray 21, improving the cluttered situation on the desktop and increasing the utilization rate of the internal space of the tea table.

[0044] Furthermore, such as Figure 2 and Figure 5 As shown in this application, the upper side of the tea table storage panel 2 is sequentially and fixedly arranged with a first tea table magnetic component 25 near the tea tray mechanism 5, a third tea table magnetic component 27 in the middle position, and a second tea table magnetic component 26 away from the tea tray mechanism 5. At the same time, the lower side of the office activity panel 3 is correspondingly and fixedly arranged with a first office magnetic component 31 near the tea tray mechanism 5, a third office magnetic component 33 in the middle position, and a second office magnetic component 32 away from the tea tray mechanism 5. When the office activity panel 3 is in the retracted and closed state, the first office magnetic component 31 located below the office activity panel 3 and the first tea table magnetic component 25 located above the tea table storage panel 2 are directly opposite each other and magnetically attracted together. At the same time, the second office magnetic component 32 and the second tea table magnetic component 26 are directly opposite each other and magnetically attracted together. The magnetic attraction force is used to restrict and lock the office activity panel 3 in the retracted state. When the operator pushes the office activity panel 3 to the side, the office activity panel 3 is subjected to external force to overcome the current magnetic holding force and slides horizontally relative to the tea table storage panel 2. Simultaneously, the first office magnetic component 31, the second office magnetic component 32, and the third office magnetic component 33 are horizontally displaced until the office activity panel 3 reaches the working position of the unfolded state. At this time, the first office magnetic component 31 moves to the top of the third tea table magnetic component 27 and magnetically attracts and engages with it, and the third office magnetic component 33 moves to the top of the second tea table magnetic component 26 and magnetically attracts and engages with it, completing the secondary physical locking in the unfolded state. The multi-node array magnetic attraction structure of this application utilizes the physical property of magnetic pole attraction to construct a dual-station positioning system, providing stable and reliable holding force and positioning feedback at both conventional working endpoints of storage and unfolding. This prevents the office activity panel 3 from unexpected sliding displacement during daily desk work or after being pushed or pulled into place, improving the structural stability and operational safety of the storage office tea table under different usage modes.

[0045] Specifically, such as Figure 2 and Figure 5 As shown, the tea table storage panel 2 is also provided with a sliding limiting protrusion 28, and the office activity panel 3 is also provided with a sliding gap limiting groove 34. In this application, the sliding limiting protrusion 28 is arranged on the side surface of the tea table storage panel 2 facing the office activity panel 3, and the sliding gap limiting groove 34 is recessed on the lower side surface of the office activity panel 3. The length extension direction of the sliding gap limiting groove 34 is parallel and consistent with the horizontal sliding trajectory of the office activity panel 3. The sliding limiting protrusion 28 extends upward and is accommodated in the internal space of the sliding gap limiting groove 34. When an external force is applied to the office activity panel 3 to drive it to slide horizontally relative to the tea table storage panel 2, the office activity panel 3 simultaneously drives the sliding gap limiting groove 34 to move, causing the sliding limiting protrusion 28 fixed on the tea table storage panel 2 to slide relatively linearly within the internal cavity of the sliding gap limiting groove 34. When the office activity panel 3 slides to the preset unfolded working position or the closed storage position, the physical sidewall of the sliding limiting protrusion 28 abuts against the inner wall of the corresponding end of the sliding gap limiting groove 34, causing mechanical interference and forming a physical rigid block. The guiding and limiting cooperation structure of this application directly defines the maximum displacement range of the office activity panel 3 by utilizing the structural length dimension of the sliding gap limiting groove 34. Through the mechanical interference blocking effect at the end of the structural component, the office activity panel 3 is prevented from exceeding the preset track range and derailing when subjected to pushing and pulling forces, thus improving the structural reliability and operational safety of the storage office tea table in the reciprocating opening and closing operation state.

[0046] The implementation principle of a storage office tea table in this application embodiment is as follows: A storage office tea table, when in the closed state, has an office movable panel 3 positioned directly above the tea table storage panel 2 and covering the tea tray mechanism 5, providing a flat tabletop for office work. When switching to tea brewing mode, a horizontal pushing force is applied to the office movable panel 3. Under the mechanical guidance and support of the desktop sliding mechanism 4, the office movable panel 3 slides relative to the tea table storage panel 2 along the track path. As the office movable panel 3 slides open, the tea tray mechanism 5 hidden below the office movable panel 3 is exposed to the external space. The operator can directly use the tea tray mechanism 5 in conjunction with the water boiling mechanism 6 located below the tea table storage panel 2 to perform heating and brewing actions. The above-mentioned stacked physical sliding connection structure integrates the office work scenario and the tea brewing scenario into the same physical table space, reducing the physical footprint of different single-function furniture, improving the comprehensive utilization rate of indoor space, and meeting the functional needs of frequently switching different application modes in a limited area. When in use, a pushing force is applied to the office activity panel 3, causing the office activity panel 3 to slide relative to the tea table storage panel 2. This causes the switch linkage rod 144, which is fixedly connected to the office activity panel 3, to move synchronously within the linkage avoidance groove 20. In turn, the switch linkage rod 144 pulls the flexible curved sliding door 143 along the guide path formed by the first sliding component 141 and the second sliding component 142 towards the side wall of the water storage cabinet 12. The physical linkage connection structure of this application transforms the linear translational motion of the office activity panel 3 into the curved opening and closing displacement of the flexible curved sliding door 143. The linkage avoidance groove 20 provides a collision-free travel space for the horizontal movement of the switch linkage rod 144. The synchronous action of the office activity panel 3 and the flexible curved sliding door 143 is realized through the mechanical transmission connection structure, reducing the steps of operating the external panel and the internal cabinet door separately, and improving the continuity and convenience of the storage office tea table in the multi-mode conversion operation process. The heat dissipation air guide component 22 is configured to output downward driving airflow. When the flexible curved sliding door 143 is slid open, the downward airflow generated by the heat dissipation air guide component 22 blows the high temperature heat and water vapor generated by the heating equipment downward and dissipates them. When the flexible curved sliding door 143 is closed, the heat dissipation air guide component 22 continues to blow downward. The actively generated downward wind pressure drives the water vapor and moisture trapped inside the air guide gap 23, the tea tray trough 21, and the water boiling hidden cavity 16 to move downward and be concentrated and discharged to the external environment through the bottom air guide groove 151. The active downward airflow exhaust physical structure of this application changes the physical transmission path of the naturally rising hot air. It uses downward forced wind pressure to build a directional exhaust network, which prevents the high temperature and water vapor from overflowing upward and causing heat radiation interference to the desktop operating area. At the same time, in the closed state, it effectively removes the moisture accumulated in multiple physical spaces inside the tea table, reduces the risk of internal support components becoming damp and moldy and deformed by heat, and improves the dryness of the internal closed space and the safety of the electrical module operation.

[0047] The above are all preferred embodiments of this application, and are not intended to limit the scope of protection of this application. Therefore, all equivalent changes made in accordance with the structure, shape and principle of this application should be covered within the scope of protection of this application.

Claims

1. A storage office tea table, characterized in that, The tea table includes a tea table support base (1), a tea table storage panel (2) connected to the upper side of the tea table support base (1), an office activity panel (3) located on the upper side of the tea table storage panel (2) and movably connected to the tea table storage panel (2), a desktop slide rail mechanism (4) located between the tea table storage panel (2) and the office activity panel (3) and connected to the tea table storage panel (2) and the office activity panel (3) respectively, a tea tray embedding mechanism (5) embedded on the tea table storage panel (2) and located between the office activity panel (3) and the tea table storage panel (2), and a water boiling mechanism (6) located on the tea table support base (1) and below the tea table storage panel (2).

2. The storage office tea table according to claim 1, characterized in that, The tea table support base (1) includes a support body (11), a water storage cabinet (12) connected to the support body (11), a water boiling cabinet (13) connected to the support body (11) and located on one side of the water storage cabinet (12), a water boiling sliding door assembly (14) movably connected to the support body (11) and fixedly connected at its end to the office activity panel (3), and a water boiling support platform (15) connected to the water boiling cabinet (13) and located below the tea table storage panel (2); the water boiling support platform (15), the tea table storage panel (2) and the support body (11) surround each other to form a water boiling hidden cavity (16), and the water boiling sliding door assembly (14) is located at the opening end of the water boiling hidden cavity (16).

3. The storage office tea table according to claim 2, characterized in that, The water-boiling sliding door assembly (14) includes a first sliding component (141) connected to the lower side of the tea table storage panel (2), a second sliding component (142) connected to the water-boiling support platform (15) and correspondingly arranged with the first sliding component (141), a flexible curved sliding door (143) movably connected to the first sliding component (141) and the second sliding component (142) respectively, and a switch linkage rod (144). The tea table storage panel (2) is provided with a linkage avoidance groove (20) extending along the sliding direction of the office activity panel (3). The switch linkage rod (144) is connected to the end of the flexible curved sliding door (143). The switch linkage rod (144) passes upward through the linkage avoidance groove (20) and is fixedly connected to the office activity panel (3). Both the first sliding component (141) and the second sliding component (142) extend to the side wall of the water storage tank (12).

4. The storage office tea table according to claim 2, characterized in that, The water boiling mechanism (6) includes an induction cooker assembly (61) mounted on the water boiling support platform (15), a water purification tank (62) inserted into the water storage cabinet (12), and a water inlet pipe assembly (63) inserted into the water purification tank (62) and extending above the induction cooker assembly (61).

5. A storage office tea table according to claim 2, characterized in that, The tea table storage panel (2) is provided with a tea tray trough (21); The tea tray mechanism (5) includes a tea tray assembly (51) inserted into the tea tray trough (21), a wastewater conduit (52) connected to the tea tray trough (21) and extending into the water storage tank (12), and a wastewater collection bucket (53) inserted into the water storage tank (12) and connected to the wastewater conduit (52).

6. A storage office tea table according to claim 5, characterized in that, The tea tray assembly (51) has a water guide hole (511) in the middle position that communicates with the tea tray trough (21). The tea tray assembly (51) also has a water guide slope (512) located around the water guide hole (511) and inclined downward toward the water guide hole (511).

7. A storage office tea table according to claim 5, characterized in that, The tea table storage panel (2) is also provided with a heat dissipation and air guiding component (22) located between the office activity panel (3) and the water boiling support platform (15); there is an air guiding gap (23) between the tea table storage panel (2) and the office activity panel (3) that communicates with the external space; the water boiling support platform (15) is provided with an air guiding groove (151) for connecting the water boiling hidden cavity (16) with the external space; the heat dissipation and air guiding component (22) is used to connect the air guiding gap (23) and the water boiling hidden cavity (16); the air guiding gap (23) is connected with the tea tray trough (21).

8. A storage office tea table according to claim 5, characterized in that, The tea table storage panel (2) is also provided with a teaware storage slot (24) located on one side of the tea tray trough (21), and the teaware storage slot (24) is located below the office activity panel (3).

9. A storage office tea table according to claim 1, characterized in that, The upper side of the tea table storage panel (2) is provided with a first tea table magnetic component (25) located near the tea tray mechanism (5), a second tea table magnetic component (26) located away from the tea tray mechanism (5), and a third tea table magnetic component (27) located between the first tea table magnetic component (25) and the second tea table magnetic component (26). The lower side of the office activity panel (3) is provided with a first office magnetic component (31) located near the tea tray mechanism (5), a second office magnetic component (32) located away from the tea tray mechanism (5), and a third office magnetic component (33) located between the first office magnetic component (31) and the second office magnetic component (32). When the office activity panel (3) is in the storage state, the first tea table magnetic component (25) and the first office magnetic component (31) are magnetically attracted to each other, and the second tea table magnetic component (26) and the second office magnetic component (32) are magnetically attracted to each other. When the office activity panel (3) is in the unfolded state, the first office magnetic component (31) and the third tea table magnetic component (27) are magnetically attracted to each other, and the third office magnetic component (33) and the second tea table magnetic component (26) are magnetically attracted to each other.

10. A storage office tea table according to claim 9, characterized in that, The tea table storage panel (2) is also provided with a sliding limiting protrusion (28) extending in the direction close to the office activity panel (3). The lower side of the office activity panel (3) is also provided with a sliding gap limiting groove (34) for the sliding limiting protrusion (28) to be inserted. The sliding gap limiting groove (34) is set along the sliding direction of the office activity panel (3).

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