A counterflow honeycomb channel condenser

Abstract

The present application relates to the general heat exchange technical field, specifically to a kind of counterflow honeycomb channel condenser, for two kinds of medium convection to carry out heat exchange, hot water enters filler assembly and flows from top to bottom on the surface of connecting plate, the fan suction external cold air from the bottom of filler assembly and flows upwards, so that cold air and connecting plate surface hot water convection heat exchange.Cylindrical connecting column is used instead of traditional channel corner, so that the included angle formed by connecting column and the edge of connecting plate is less than ninety degrees, so as to avoid the tearing of liquid film in edge area and the accumulation into droplets, so as to avoid the problem of blocking channel and affecting the flow of cold air, and ensure the heat exchange effect;And cold air flows in air duct to quickly take away the heat of connecting plate, so that the liquid film of connecting plate arc surface loses heat faster, and then the effect of improving heat exchange efficiency and reducing fan energy consumption is achieved.

Description

Technical Field

[0001] This invention relates to the field of general heat exchange technology, specifically to a counter-flow honeycomb channel condenser. Background Technology

[0002] A counter-flow condenser is a device that uses convection between hot water and cold outside air to achieve heat exchange. Its main purpose is to cool hot water so that it can be quickly recovered and reused. Its core function is to achieve heat and mass transfer through the counter-current flow of hot and cold fluids within channels formed by packing material. The packing material is mainly a honeycomb array of multiple sets of parallel plates, with capillary tube bundles on the plate surface to enhance heat transfer. During operation, hot water is sprayed from the top of the device onto the packing material below. The hot water forms a thin liquid film flowing downwards along the plate surface. Simultaneously, under the action of a fan, cold outside air flows vertically upwards from the bottom of the packing material through the channels formed between the plates, forming convective heat exchange with the liquid film. At the same time, the heat from the hot water is rapidly carried away through the heat conduction of the plate walls and the convective mass transfer at the gas-liquid interface.

[0003] However, due to the honeycomb shape of the packing material, with each channel having a hexagonal cross-section, the capillary suction intensity in the central region of the channel is significantly higher than that at the corners due to the geometric symmetry of the hexagonal plate units. This causes the liquid film to continuously migrate towards the center, forming a thicker liquid film layer. When the liquid film thickness is high at a certain point, the gravity also increases accordingly. Under the influence of gravity, the liquid film velocity at that point will increase, leading to a shorter heat exchange time—that is, a shorter time for heat exchange with cold air. This results in insufficient heat transfer, affecting the heat exchange efficiency of the equipment. Simultaneously, the sharp geometric configuration at the channel edges weakens the liquid retention capacity of the microgrooves, causing the liquid film to break and form discrete droplets. These droplets collide continuously under the impact of the rising airflow, agglomerating and forming large liquid masses that block the airflow channels. This affects the normal flow of cold air, significantly increasing equipment energy consumption and raising production costs.

[0004] To address this, a counter-flow honeycomb channel condenser is proposed. Summary of the Invention

[0005] The purpose of this invention is to provide a counter-flow honeycomb channel condenser that solves the problem of excessively large edge angles in traditional honeycomb channels causing liquid film breakage into discrete droplets, which then block the channels under airflow, thus increasing fan power consumption. By setting connecting columns and connecting plates, the connecting columns and connecting plates are connected by plugging to form a gas-liquid flow channel, which is easy to assemble. The arc surface of the connecting column contacts the connecting plate, thereby reducing the edge angle and stabilizing the intermolecular forces. This results in a stable and uniform liquid film forming on the surface of the connecting plate, which generates slight vibrations when air flows, thus preventing droplets from blocking the channels and avoiding the problem of increased fan power consumption caused by channel blockage, achieving an energy-saving effect.

[0006] To achieve the above objectives, the present invention provides the following technical solution:

[0007] A counter-flow honeycomb channel condenser includes a housing, an air inlet mesh, a water storage tank, a spray system, and a fan. It also includes a packing assembly installed inside the housing. The packing assembly includes connecting columns and connecting plates. The connecting columns are cylindrical, and one side of the connecting plate is arc-shaped, while the other side is straight. Two oppositely placed connecting plates are connected between every two connecting columns. Multiple connecting columns and connecting plates are combined by snap-fit ​​to form a regular hexagonal shape. Multiple packing assemblies are combined together to form a honeycomb structure. The angle between the connecting columns and connecting plates is less than 90 degrees. The spray system sprays hot water into the packing assembly, forming a downward-flowing water film on the surface of the connecting plates. The fan draws in outside cold air from the bottom of the packing assembly, which then flows upward.

[0008] Traditional honeycomb packing is typically a monolithic structure, with each channel being a regular hexagon with angles usually exceeding 120 degrees. Angles greater than 90 degrees weaken capillary action and hinder the formation of a continuous liquid film. Furthermore, the monolithic structure makes cleaning difficult when dirt or impurities accumulate within the channels. This solution utilizes connecting columns and plates, assembled in a snap-fit ​​manner, to create channels that accommodate both liquid and air. When cleaning or replacement is needed, the affected sections can be disassembled and reassembled individually, making operation simple and convenient. In addition, this solution uses cylindrical connecting columns instead of the traditional channel corners, ensuring the angle between the column and the connecting plate is less than 90 degrees. This prevents liquid accumulation at the corners and ensures the liquid is evenly distributed across the connecting plates and columns, allowing for smooth flow and maximizing heat exchange efficiency.

[0009] Preferably, the upper edge of one side of the arc surface of the connecting plate is inclined, and multiple vertical protrusions are connected to the arc surface of the connecting plate.

[0010] With the above method, the sprayed hot water will fall onto the arc surface of the connecting plate and form a uniform water film under the guidance of the convex strips, thereby ensuring that the hot water and cold air can achieve a good heat exchange effect and improving the heat exchange efficiency.

[0011] Preferably, a gap is left between two adjacent connecting plates, and an air duct is formed with the straight surfaces of the two connecting plates as the edges, and the lower opening of the air duct is tapered.

[0012] With the above solution, when hot water covers the surface of the connecting plate, it will also transfer heat to the connecting plate. In order to quickly remove the heat from the connecting plate and achieve better heat dissipation, an air duct structure is set up. In addition to passing through the channel formed between the multiple arc surfaces of the connecting plates, some cold air will also flow from the air duct, thereby removing the heat transferred from the hot water to the connecting plate, thus achieving a better heat exchange effect, thereby improving heat exchange efficiency and reducing fan energy consumption.

[0013] Preferably, the air duct is provided with a plurality of elastic plates, one end of which is fixedly connected to the straight side of the connecting plate, and the other end is a free end.

[0014] With the above solution, when cold air passes through the air duct, it causes the elastic sheet to bend upward. When the elastic sheet is raised to a certain extent, the change in the contact angle between the cold air and the elastic sheet reduces the wind force on the elastic sheet, causing it to rebound. The rebounding elastic sheet impacts the straight side of the connecting plate, causing it to vibrate slightly, thereby accelerating the flow rate of the water film and further preventing hot water from condensing into droplets and blocking the channel. This ensures space for cold air circulation and avoids the problem of insufficient cold air requiring increased fan power, thus achieving energy-saving effects.

[0015] Preferably, the upper end of the connecting column is provided with a sliding groove, and a baffle is connected between two adjacent connecting columns through the sliding groove. The baffle is located on the upper side of the air duct.

[0016] In the above solution, the space formed by the arc side of the connecting plate is used as a channel for heat exchange between hot water and cold air. To prevent hot water from entering the air duct used for heat dissipation of the connecting plate, a baffle is installed at the upper opening of the air duct to prevent hot water from dripping into the air duct.

[0017] Preferably, the width of the baffle is greater than the overall width of the connecting plates on both sides of the air duct, the upper surface of the baffle is an arc surface, and the lower side of the baffle is a smooth "m" shape.

[0018] With the above solution, when hot water is sprayed onto the upper surface of the baffle, it slides down along its curved surface. Meanwhile, the cold air in the air duct blows onto the lower surface of the baffle as it passes through the duct, and blows outward along the shape of the lower surface, dispersing the falling hot water into a finer mist. This makes the sprayed hot water more evenly distributed on the surface of the connecting plate, thereby achieving a better heat exchange effect, enhancing heat exchange efficiency, and thus achieving energy-saving effect.

[0019] Preferably, a partition is connected between the plurality of connecting columns, and the partition is wavy.

[0020] The above solution increases the surface area for liquid adhesion by using baffles, thereby increasing the heat exchange area, improving heat exchange efficiency, and reducing the energy consumption required by the fan. In addition, the baffles act as a reinforcing rib, thereby enhancing the stability of the overall structure.

[0021] Preferably, the surface of the partition is provided with a plurality of guide blocks, which are vertically arranged strip-shaped structures.

[0022] The above scheme guides the flow of cold air by using guide blocks, helping it to form a stable laminar flow, thereby avoiding turbulence that tears the water film and ensuring the heat exchange effect.

[0023] Compared with the prior art, the beneficial effects of the present invention are as follows:

[0024] 1. The present invention provides a counter-flow honeycomb channel condenser, which solves the problem of liquid film breakage and cold air circulation caused by excessive edge angles in traditional honeycomb channels. By setting connecting columns and connecting plates, the cylindrical connecting columns replace the corners of traditional channels, making the angle between them and the edge of the connecting plate less than 90 degrees. This avoids the problem of liquid film tearing and accumulating into droplets in the edge area, thus blocking the channel and affecting cold air circulation, and achieving the effect of reducing fan energy consumption and saving energy. At the same time, the connecting plates and connecting columns are installed by snap-fit, replacing the traditional integrated structure, which makes it more convenient and quick to disassemble, clean or replace when needed, and is simple to operate and easy to use.

[0025] 2. The present invention provides a counter-flow honeycomb channel condenser, which, by setting up air ducts and baffles, utilizes the flow of cold air within the air ducts to quickly remove heat from the connecting plate, thereby causing the liquid film on the arc surface of the connecting plate to lose heat more quickly. This improves heat exchange efficiency and reduces fan energy consumption. At the same time, when cold air passes through the air ducts, the elastic sheet causes the connecting plate to vibrate slightly, thereby accelerating the water film flow rate and preventing the liquid from condensing into droplets and compressing the cold air circulation space. This avoids the problem of insufficient cold air requiring increased fan power, thus achieving energy-saving effects.

[0026] 3. The counter-flow honeycomb channel condenser of the present invention, by setting baffles, on the one hand, uses the baffles to connect between multiple connecting columns, so as to act as reinforcing ribs, thereby enhancing the stability of the overall structure. On the other hand, the corrugated baffles increase the surface area for liquid film adhesion, thereby increasing the heat dissipation area, thus improving heat exchange efficiency and reducing fan energy consumption. At the same time, the guide blocks on the surface of the baffles assist the circulating cold air to form a stable laminar flow, preventing the water film on the surface of the connecting plate from being torn, thereby ensuring the heat exchange effect. Attached Figure Description

[0027] Figure 1 This is a schematic diagram of the overall structure of the present invention;

[0028] Figure 2 This is a schematic diagram of the honeycomb channel formed by multiple sets of filler assemblies according to the present invention;

[0029] Figure 3 This is a schematic diagram of the structure of a single packing assembly of the present invention;

[0030] Figure 4 This is a schematic diagram showing the installation relationship between the connecting plate and the connecting column of the present invention;

[0031] Figure 5 This is a schematic diagram of the air duct and elastic sheet of the present invention;

[0032] Figure 6 For the present invention Figure 4 Enlarged view of point A in the middle;

[0033] Figure 7 This is a schematic diagram of the structure of the baffle of the present invention;

[0034] Figure 8 This is a schematic diagram of the partition structure of the present invention.

[0035] In the diagram: 1. Housing; 2. Air inlet mesh; 3. Water storage tank; 4. Spray system; 5. Fan; 6. Packing assembly; 601. Connecting column; 602. Connecting plate; 603. Raised strip; 604. Air duct; 7. Elastic sheet; 8. Slide groove; 9. Baffle; 10. Partition; 11. Guide block. Detailed Implementation

[0036] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0037] Please see Figures 1 to 8This invention provides a counter-flow honeycomb channel condenser, the technical solution of which is as follows:

[0038] For details, please refer to Figures 1 to 3 A counter-flow honeycomb channel condenser includes a housing 1, an air inlet screen 2, a water storage tank 3, a spray system 4, and a fan 5. The air inlet screen 2 is installed in the area near the lower side of the housing 1, and the fan 5 is installed on the top of the housing 1. When the fan 5 is working, it draws in outside cold air from the air inlet screen 2 into the housing 1. The water storage tank 3 is located on the lower side of the housing 1, and the spray system 4 is located inside the housing 1. It also includes a packing assembly 6, which is installed inside the housing 1 and located in the area between the spray system 4 and the air inlet screen 2. When working, the spray system 4 sprays hot water onto the packing assembly 6. At this time, the hot water forms a downward flowing water film on the surface of the packing assembly 6. At the same time, the cold air drawn in by the fan 5 passes through the packing assembly 6 and flows upward, so that the water film formed by the hot water and the cold air flow in opposite directions. After heat exchange, the hot water falls into the water storage tank 3 for subsequent recycling. After heat exchange, the cold air passes through the fan 5 and is discharged to the outside.

[0039] The packing assembly 6 includes connecting columns 601 and connecting plates 602. The connecting columns 601 are cylindrical, and the connecting plates 602 have an arc surface on one side and a straight surface on the other. Two oppositely placed connecting plates 602 are connected between every two connecting columns 601. Each connecting column 601 has multiple mounting grooves on its side, and the connecting plates 602 have corresponding mounting blocks. During installation, simply align the two and then insert the connecting column 601 into the connecting plate 602 from top to bottom. When cleaning or replacement is required due to damage, the part that needs to be treated can be disassembled and assembled individually, making the operation simple. Easy to use, the system combines multiple connecting columns 601 and connecting plates 602 in a snap-fit ​​manner to form a regular hexagonal shape. The connecting columns 601 and connecting plates 602 are assembled in a snap-fit ​​manner to form a channel for accommodating liquid and air. Multiple sets of packing components 6 are combined together to form a honeycomb structure. At the same time, this solution uses cylindrical connecting columns 601 to replace the corners of traditional channels, so that the angle formed between them and the edge of the connecting plate 602 is less than 90 degrees, thereby avoiding liquid accumulation at the corners and ensuring that the liquid is evenly spread on the surface of the connecting plate 602 and the connecting column 601, allowing it to flow smoothly and thus ensuring its heat exchange effect.

[0040] As one embodiment of the present invention, refer to Figure 3 and Figure 4The upper edge of one side of the arc surface of the connecting plate 602 is inclined, so that water droplets falling on the top of the connecting plate 602 can slide down its inclined surface and flow downward along one side of the arc surface of the connecting plate 602. Multiple vertical protrusions 603 are connected to the arc surface of the connecting plate 602. The protrusions 603 guide the hot water falling on one side of the arc surface of the connecting plate 602 and, together with the surface tension of the liquid, enable the hot water to form a continuous and stable water film, thereby ensuring that the hot water and cold air can achieve a good heat exchange effect and improving the heat exchange efficiency.

[0041] As one embodiment of the present invention, refer to Figure 4 and Figure 5 Since hot water covers one side of the arc surface of the connecting plate 602, and the connecting plate 602 is usually made of aluminum, which has the advantage of good thermal conductivity, the hot water will also transfer heat to the connecting plate 602 when it covers the surface of the connecting plate 602. In order to quickly remove the heat from the connecting plate 602 and achieve better heat dissipation, a gap is left between two adjacent connecting plates 602 in this solution, and an air duct 604 is formed with the straight surface of the two connecting plates 602 as the edge. In addition to passing through the channel formed between the arc surfaces of multiple connecting plates 602, some cold air will also flow from the air duct 604, thereby removing the heat transferred from the hot water to the connecting plate 602, thereby achieving a better heat exchange effect, and thus improving the heat exchange efficiency and reducing the energy consumption of the fan 5. The lower opening of the air duct 604 is tapered, which accelerates the entry of cold air into the air duct 604.

[0042] The air duct 604 is equipped with multiple elastic plates 7. One end of each elastic plate 7 is fixedly connected to the straight side of the connecting plate 602, while the other end is free. When cold air flows rapidly within the air duct 604, the elastic plate 7 will initially bend upwards due to the large contact area between the airflow and the elastic plate 7. After the elastic plate 7 is raised to a certain extent, the change in the contact angle between the cold air and the elastic plate 7 reduces the wind force on the elastic plate 7. At this point, under the elastic force of the elastic plate 7, the elastic plate 7 rebounds downwards. The rebound of the elastic plate 7 impacts the straight side of the connecting plate 602, causing it to vibrate slightly. Simultaneously, after impacting the straight side of the connecting plate 602, the elastic plate 7 itself will also vibrate at a certain frequency, thus repeatedly causing the connecting plate 602 to vibrate. This vibration is insufficient to tear the water film and affect its heat exchange effect, but it can accelerate the formation of the water film to a certain extent, thereby preventing hot water from condensing into droplets and blocking the channel. This ensures space for cold air circulation and avoids the problem of insufficient cold air requiring increased fan power, thus achieving energy-saving effects.

[0043] As one embodiment of the present invention, refer to Figure 6 and Figure 7The upper end of the connecting column 601 is provided with a sliding groove 8. A baffle 9 is connected between two adjacent connecting columns 601 via the sliding groove 8. Both ends of the baffle 9 are provided with corresponding sliders. During installation, simply align the sliders with the sliding groove 8 and then press the baffle 9 down to the designated position. After installation, the baffle 9 will be located on the upper side of the air duct 604, preventing hot water from entering the air duct 604 used for heat dissipation of the connecting plate 602. This ensures sufficient ventilation in the air duct 604, allowing for full utilization of the heat carried by the cold air from the connecting plate 602. This accelerates the cooling and heat exchange rate of the water film on the arc side of the connecting plate 602, preventing the fan 5 from consuming additional energy and achieving energy-saving effects. The width of the baffle 9 is greater than the overall width of the connecting plates 602 on both sides of the air duct 604, so that the spray water sprayed from the spray system 4 is blocked by the baffle 9 when it falls, preventing it from falling into the air duct 604. The upper surface of the baffle 9 is an arc surface. When hot water is sprayed onto the upper surface of the baffle 9, it will slide down along its arc surface. The lower side of the baffle 9 is a smooth "m" shape. When the cold air in the air duct 604 passes through the air duct 604, it will blow onto the lower surface of the baffle 9 and blow outward along the shape of its lower surface, dispersing the falling hot water into a finer water mist, so that the sprayed hot water is more evenly distributed on the surface of the connecting plate 602, thereby achieving a better heat exchange effect, enhancing heat exchange efficiency, and thus achieving an energy-saving effect.

[0044] As one embodiment of the present invention, refer to Figure 8 A partition plate 10 is connected between multiple connecting columns 601. The partition plate 10 is slidably connected to the connecting columns 601, and the connection method is similar to that between the connecting columns 601 and the connecting plate 602. The partition plate 10 is wavy. On the one hand, the partition plate 10 increases the surface area for liquid adhesion, and the wavy shape of the partition plate 10 further amplifies the above effect, thereby greatly increasing the heat exchange area, thereby improving the heat exchange efficiency and reducing the energy consumption required by the fan 5. At the same time, the partition plate 10, connected between multiple connecting columns 601, can also act as a reinforcing rib, thereby strengthening the stability of the overall structure. The surface of the partition plate 10 is provided with multiple guide blocks 11. The guide blocks 11 are vertically arranged strip structures. The guide blocks 11 guide the flow of cold air, helping it to form a stable laminar flow, thereby avoiding turbulence tearing the water film and ensuring the heat exchange effect.

[0045] The specific working principle is as follows: First, the fan 5 and the spray system 4 are started. Under the action of the spray system 4, hot water is sprayed down from above the packing assembly 6 and forms a uniform water film on the packing assembly 6. Specifically, most of the spray water will fall directly onto one side of the arc surface of the connecting plate 602 and then flow downward under the action of gravity. During this process, the spray water on the connecting plate 602 will form a continuous and uniform water film due to its surface tension and the cooperation with the convex strip 603. The hot water at the contact position between the connecting plate 602 and the connecting column 601 will also have a reduced probability of condensing into droplets because the included angle at this position is less than 90 degrees, thus ensuring that the hot water can be spread evenly and thus ensuring the heat exchange efficiency. In addition, since multiple baffles 10 are also provided between the connecting columns 601, the spray water will also form a downward flowing water film on the baffles 10. The baffles 10 increase the heat exchange area and act as a kind of reinforcing rib to enhance the stability of the overall structure.

[0046] Under the action of the fan 5, outside cold air enters from the air inlet net 2 and flows upward through the packing assembly 6, causing it to undergo convective heat exchange with the downward-moving water film. In this process, the baffle 10 not only increases the heat exchange area between the water film and the cold air, but also acts as a guide plate, making the flowing cold air form a stable laminar flow, thereby preventing the water film from being torn and affecting heat exchange. At the same time, since the hot water also transfers heat to the connecting plate 602 when it covers the surface of the connecting plate 602, in order to quickly remove the heat from the connecting plate 602 and achieve a better heat dissipation effect, some cold air will enter the air duct 604 between the connecting plates 602, thereby quickly removing the heat from the connecting plate 602 and achieving a better heat exchange effect.

[0047] As cold air flows through the air duct 604, the elastic sheet 7 initially bends upward due to the large contact area between the airflow and the elastic sheet 7. Once the elastic sheet 7 is raised to a certain extent, the change in the contact angle between the cold air and the elastic sheet 7 reduces the wind force acting on it. At this point, the elastic sheet 7 rebounds downwards due to its elasticity, impacting the straight side of the connecting plate 602 and causing it to vibrate slightly. Simultaneously, the elastic sheet 7 vibrates at a certain frequency after impacting the straight side of the connecting plate 602, repeatedly causing the connecting plate 602 to vibrate, preventing hot water from condensing into droplets and blocking the channel. When the cold air passes through the air duct 604 and is on the lower surface of the baffle 9, it blows outwards along the shape of the lower side of the baffle 9, dispersing the falling hot water into a finer mist, making the sprayed hot water more evenly distributed on the surface of the connecting plate 602, thus achieving a better heat exchange effect.

[0048] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A counter-flow honeycomb channel condenser, comprising a housing (1), an air inlet screen (2), a water storage tank (3), a spray system (4), and a fan (5), characterized in that: It also includes a packing assembly (6), which is installed inside the housing (1). The packing assembly (6) includes a connecting column (601) and a connecting plate (602). The connecting column (601) is a cylinder, and the connecting plate (602) has an arc surface on one side and a straight surface on the other side. Two connecting plates (602) placed in opposite directions are connected between every two connecting columns (601). Multiple connecting columns (601) and connecting plates (602) are combined by snap-fit ​​to form a regular hexagonal shape. Multiple packing assemblies (6) are combined together to form a honeycomb structure. The included angle between the connecting column (601) and the connecting plate (602) is less than 90 degrees. The spray system (4) sprays hot water into the packing assembly (6) and forms a water film flowing from top to bottom on the surface of the connecting plate (602). The fan (5) draws in cold air from the outside, which enters from the bottom of the packing assembly (6) and flows upward. A gap is left between the two oppositely placed connecting plates (602), and an air duct (604) is formed with the straight surface of the two oppositely placed connecting plates (602) as the edge. The lower opening of the air duct (604) is gradually narrowed.

2. The counter-flow honeycomb channel condenser according to claim 1, characterized in that: The upper edge of the arc surface of the connecting plate (602) is inclined, and a plurality of vertical protrusions (603) are connected to the arc surface of the connecting plate (602).

3. A counter-flow honeycomb channel condenser according to claim 1, characterized in that: The air duct (604) is provided with a plurality of elastic plates (7), one end of which is fixedly connected to the straight side of the connecting plate (602), and the other end is a free end.

4. A counter-flow honeycomb channel condenser according to claim 1, characterized in that: The upper end of the connecting column (601) is provided with a sliding groove (8), and two adjacent connecting columns (601) are connected by a baffle (9) through the sliding groove (8). The baffle (9) is located on the upper side of the air duct (604).

5. A counter-flow honeycomb channel condenser according to claim 4, characterized in that: The width of the baffle (9) is greater than the overall width of the connecting plates (602) on both sides of the air duct (604). The upper surface of the baffle (9) is an arc surface, and the lower side of the baffle (9) is a smooth "m" shape.

6. A counter-flow honeycomb channel condenser according to claim 1, characterized in that: A partition (10) is connected between the plurality of connecting columns (601), and the partition (10) is wavy.

7. A counter-flow honeycomb channel condenser according to claim 6, characterized in that: The surface of the partition (10) is provided with a plurality of guide blocks (11), and the guide blocks (11) are vertically arranged strip structures.

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