Integrated heat-removal-free low-carbon energy-saving post air conditioner

Abstract

The utility model provides an integrated heat-removal-free low-carbon energy-saving post air conditioner, and relates to the technical field of air conditioners. The compressor is arranged in the air conditioner body and changes a refrigerant from low-pressure gas to high-pressure gas; the condenser is arranged in the air conditioner body and is connected with the compressor through a refrigerant pipeline; the evaporator is arranged on the inner side of the air conditioner body, is used for receiving the liquid refrigerant treated by the condenser and is connected with the compressor through a pipeline; the fan is arranged near the evaporator and is used for exhausting air or sucking cold air into a specified area; and the electric box is arranged on the inner side of the air conditioner body, is connected with the compressor and the fan through electric wires, and is used for providing electric power and control signals. Through the efficient water-cooling heat exchange system, the non-heat-discharge effect is achieved, the refrigeration efficiency is improved, the energy consumption is reduced, the influence of heat discharge on the environment is reduced, and the working efficiency is improved.

Description

Technical Field

[0001] The utility model relates to the technical field of air conditioners, in particular to an integrated heat-exhaust-free, low-carbon and energy-saving post air conditioner. Background Art

[0002] Common air conditioners on the market use air cooling to remove heat from the condenser. During this process, the heat generated by the compressor inside the air conditioner is transferred to the heat sink through the condenser. Then, the fan blows air, dissipating the heat into the surrounding environment through convection and radiation.

[0003] However, this air cooling method has its limitations. First, it is significantly affected by ambient temperature and air circulation. If the ambient temperature is high or air circulation is poor, the heat dissipation effect will be greatly reduced, which in turn affects the cooling effect and energy efficiency of the air conditioner. Second, air cooling may generate noise and vibration during the heat dissipation process, affecting user comfort and the lifespan of the air conditioner. Furthermore, long-term reliance on air cooling for heat dissipation may cause thermal pollution to the surrounding environment, which is not conducive to environmental protection. Utility Model Content

[0004] The technical problem to be solved by the utility model is to provide an integrated heat-free, low-carbon and energy-saving work air conditioner, which realizes heat-free operation, reduces energy consumption and reduces environmental pollution.

[0005] In order to solve the above technical problems, the technical solutions of the present utility model are as follows:

[0006] An integrated heat-free, low-carbon, energy-saving office air conditioner comprising:

[0007] Air conditioner body;

[0008] A compressor is disposed in the air conditioner body and converts the refrigerant from a low-pressure gas to a high-pressure gas;

[0009] a condenser, disposed in the air conditioner body and connected to the compressor via a refrigerant pipe;

[0010] an evaporator, disposed inside the air conditioner body, for receiving the liquid refrigerant processed by the condenser and connected to the compressor through a pipeline;

[0011] A fan is provided near the evaporator and is used to exhaust air or draw in cold air into a designated area;

[0012] The electric box is arranged inside the air conditioner body and is connected to the compressor and the fan through electric wires to provide power and control signals.

[0013] Furthermore, the air conditioner body includes:

[0014] shell;

[0015] a front air inlet net, arranged on the front shell of the housing;

[0016] a rear air inlet net, arranged on the rear shell of the housing;

[0017] A control panel is arranged above the front air inlet screen;

[0018] an air exhaust port, provided on the upper shell of the housing;

[0019] Two pressure gauges are provided and are arranged below the rear air inlet screen;

[0020] A sewage outlet is provided at the bottom of the rear shell of the housing;

[0021] a water inlet, arranged side by side with the sewage outlet at the bottom of the rear shell of the housing;

[0022] The overflow port is arranged at the bottom of the rear shell of the outer shell in parallel with the sewage outlet and the water inlet.

[0023] Furthermore, four pulleys are evenly installed on the bottom of the air conditioner body.

[0024] Furthermore, outer wet curtain paper and inner wet curtain paper are provided on both sides of the condenser, and the inner wet curtain paper is used to isolate the water mist in the air passing through the outer wet curtain paper and the condenser.

[0025] Furthermore, the outer wet curtain paper is connected to the inner wet curtain paper, and the inner wet curtain paper evenly distributes water to the outer wet curtain paper.

[0026] Furthermore, the fan includes:

[0027] A blower is provided above the housing of the air conditioner body to deliver the cold air processed by the evaporator to the designated work area;

[0028] The exhaust fan is arranged between the inner wet curtain paper and the air supply fan, and is used to evaporate the heat in the water when drawing air into the outer wet curtain paper and the condenser, so that the water temperature of the water tank remains unchanged.

[0029] Furthermore, the blower is installed with an air supply pipe, and air is supplied through the air supply pipe or open louvers, and the blower can be a centrifugal fan or an axial flow fan.

[0030] Furthermore, the electrical box is electrically connected to the water pump.

[0031] Furthermore, the water pump delivers the cooling water into the condenser water distributor and the inner wet curtain paper through the condenser water inlet pipe and the outer wet curtain paper inlet pipe.

[0032] Furthermore, the water in the condenser water separator is transported to the upper part of the condenser, and the water flows from top to bottom and exchanges with the heat in the condenser to take away the heat.

[0033] The above solution of the utility model includes at least the following beneficial effects:

[0034] By integrating components such as the compressor, condenser, evaporator, and fan into the air conditioner, a compact and efficient refrigeration system is created. After being pressurized in the compressor, the refrigerant enters the condenser, rapidly dissipating heat and converting to liquid form. It then absorbs heat and evaporates in the evaporator, completing the refrigeration cycle. This process not only improves cooling efficiency but also eliminates hot air emissions through the heat-free design, reducing energy consumption and achieving low-carbon operation. The integrated design significantly reduces the air conditioner's footprint, simplifying the installation process and reducing complexity. Furthermore, the compact structure facilitates subsequent maintenance and reduces costs.

[0035] The electrical box, serving as the control center, is tightly connected to the compressor, fan, and other components via electrical wiring, providing stable power and precisely controlling their operation. This not only ensures optimal cooling performance but also enables automated regulation and energy-saving optimization, reducing operating costs. The use of environmentally friendly refrigerants and materials reduces environmental pollution and burden. Furthermore, the efficient cooling system reduces energy consumption, contributing to energy conservation and emission reduction. This air conditioner is suitable for a variety of locations requiring cooling and energy conservation, such as factory workshops, offices, and shopping malls. Its heat-free design prevents the impact of hot air on the indoor environment, enhancing indoor comfort. BRIEF DESCRIPTION OF THE DRAWINGS

[0036] Figure 1 This is a front view of an integrated heat-free, low-carbon, energy-saving office air conditioner provided by an embodiment of the present utility model.

[0037] Figure 2 This is a partial internal structure diagram of an integrated heat-free, low-carbon, energy-saving office air conditioner provided by an embodiment of the utility model.

[0038] Figure 3 This is another part of the internal structure diagram of an integrated heat-free, low-carbon, energy-saving office air conditioner provided by an embodiment of the present utility model.

[0039] Figure 4 This is a shell structure diagram of an integrated heat-free, low-carbon, energy-saving office air conditioner provided by an embodiment of the utility model.

[0040] Explanation of the accompanying symbols: 1. Casing; 2. Compressor; 3. Condenser; 4. Evaporator; 5. Inner wet curtain paper; 6. Electric box; 7. Front air inlet grille; 8. Control panel; 9. Rear air inlet grille; 10. Exhaust outlet; 11. Pressure gauge; 12. Sewage outlet; 13. Water inlet; 14. Overflow outlet; 15. Outer wet curtain paper; 16. Inner wet curtain paper; 17. Air blower; 18. Air supply pipe; 19. Exhaust fan; 20. Water pump; 21. Condenser water inlet pipe; 22. Outer wet curtain paper water inlet pipe; 23. Condenser water distributor; 24. Pulley. DETAILED DESCRIPTION

[0041] Exemplary embodiments of the present disclosure will be described in more detail below with reference to the accompanying drawings. Although exemplary embodiments of the present disclosure are shown in the accompanying drawings, it should be understood that the present disclosure can be implemented in various forms and should not be limited by the embodiments set forth herein. Rather, these embodiments are provided to enable a more thorough understanding of the present disclosure and to fully convey the scope of the present disclosure to those skilled in the art.

[0042] like Figures 1 to 4 As shown, the embodiment of the present invention provides an integrated heat-free, low-carbon, energy-saving office air conditioner, comprising:

[0043] Air conditioner body;

[0044] The compressor 2 is provided in the air conditioner body and converts the refrigerant from low-pressure gas to high-pressure gas;

[0045] The condenser 3 is arranged in the air conditioner body and connected to the compressor 2 through a refrigerant pipe;

[0046] The evaporator 4 is provided inside the air conditioner body, is used to receive the liquid refrigerant processed by the condenser 3, and is connected to the compressor 2 through a pipeline;

[0047] A fan is provided near the evaporator 4 and is used to discharge air or draw in cold air into a designated area;

[0048] The electric box 6 is arranged inside the air conditioner body and is connected to the compressor 2 and the fan through wires to provide power and control signals.

[0049] In the embodiment of the present invention, the compressor compresses the refrigerant from a low-pressure gas to a high-pressure gas. This process increases the temperature and pressure of the refrigerant. After exiting the compressor, the high-pressure, high-temperature refrigerant gas enters the condenser. In the condenser, the refrigerant releases heat, condensing from a gaseous state to a liquid state. This heat is dissipated into the surrounding environment through the fins on the condenser's surface. The liquid refrigerant then flows into the evaporator, where it rapidly evaporates, absorbing the surrounding heat and thereby lowering the temperature of the evaporator and its surroundings. This process produces a cooling effect. The fan, located near the evaporator, performs two functions. First, it draws cool air from the evaporator and blows it toward a designated area, such as a room, providing cooling. Second, it also helps exhaust air to maintain the efficiency of the evaporator. The electrical box is the "brain" and "energy center" of the air conditioner. It is connected to key components such as the compressor and fan via electrical wiring, providing the necessary power. Furthermore, the control system within the electrical box sends control signals to ensure that each component operates according to the set program and operating conditions.

[0050] Through the efficient compression of the compressor, the refrigerant circulates rapidly between the condenser and evaporator, achieving rapid cooling. The intelligent control of the electrical box precisely adjusts the refrigerant circulation rate and fan operation, achieving precise temperature control. Efficient compression and condensation processes mean efficient energy utilization, reducing energy consumption and waste. Furthermore, common air conditioners on the market all use air cooling to remove heat from the condenser. These air conditioners have two heat removal methods: one is to discharge heat outdoors through an air duct, and the other is to discharge heat directly upward. The upward discharge method can increase the overall temperature of the space and has the disadvantages of structural limitations, which prevents the compressor from fully utilizing its cooling capacity and results in high power consumption and energy consumption. The fan ensures that the cool air is evenly distributed to the designated area, providing a comfortable living environment. The intelligent control system of the electrical box allows the air conditioner's operating mode to be set and adjusted to meet different cooling needs.

[0051] like Figures 1 to 4 As shown, the air conditioner body includes:

[0052] Shell 1;

[0053] A front air inlet net 7 is provided on the front shell of the housing 1;

[0054] A rear air inlet net 9 is provided on the rear shell of the housing 1;

[0055] A control panel 8 is provided above the front air inlet screen 7;

[0056] The exhaust port 10 is provided on the upper shell of the housing 1;

[0057] There are two pressure gauges 11, which are arranged below the rear air inlet net 9;

[0058] A sewage outlet 12 is provided at the bottom of the rear shell of the housing 1;

[0059] The water inlet 13 is arranged side by side with the sewage outlet 12 at the bottom of the rear shell of the housing 1;

[0060] The overflow port 14 is arranged at the bottom of the rear shell of the housing 1 in parallel with the sewage outlet 12 and the water inlet 13 .

[0061] In this embodiment of the present invention, the outer casing 1 serves as the air conditioner's external structure, providing not only support and protection but also ensuring that the internal components operate in a closed and safe environment. This closed structure helps prevent external interference and damage while also providing a stable operating environment for the internal components. A front air inlet screen 7 and a rear air inlet screen 9, located at the front and rear of the outer casing, allow outside air to flow into the air conditioner. These two inlet screens work together to ensure sufficient airflow for heat exchange within the air conditioner. Furthermore, the inlet screens provide a filtering effect, preventing dust and impurities from entering the machine, thereby keeping the internal components clean and operating efficiently. A control panel 8, located above the front air inlet screen, serves as the user interface for interacting with the air conditioner. The user can use this control panel to set the air conditioner's operating mode (such as cooling, heating, or air supply), target temperature, wind speed, and other parameters. These settings are converted into electrical signals that control the operating state of the air conditioner's internal components, thereby achieving the user's desired ambient temperature.

[0062] The exhaust vent 10, located at the top of the air conditioner's casing, serves as the channel for the processed air inside the air conditioner to be discharged. The exhaust vent 10 is integrated with a centrifugal or axial flow fan. These fans generate forced convection, drawing the hot air inside and expelling it outdoors. When the fan is running, it generates a strong suction force, rapidly expelling the heat-exchanged air inside the air conditioner through the exhaust vent 10, thereby maintaining a low temperature inside the air conditioner and providing continuous cooling for the workplace. When a centrifugal fan is operating, air enters the fan's air inlet, is accelerated by the high-speed rotating impeller, and is discharged through the fan's air outlet. In an air conditioner, a centrifugal fan helps quickly exhaust the air inside. An axial flow fan, on the other hand, uses the rotation of the impeller to force air along the impeller's axis. Based on the temperature and wind speed set by the user on the control panel, the fan and refrigeration system inside the air conditioner work together to discharge the processed hot and cold air into the room through the exhaust vent, thereby regulating the indoor temperature. Two pressure gauges 11, located below the rear air inlet grille, monitor the refrigerant pressure inside the air conditioner in real time. Refrigerant pressure is one indicator of proper air conditioner operation and reflects the refrigeration system's operating status. By observing the pressure gauge readings, operators can understand the system's operating status and promptly identify and address potential issues such as refrigerant leaks, excessive or insufficient pressure, etc. The drain port 12, water inlet 13, and overflow port 14 are located side by side on the rear bottom of the housing, each performing a different function. The drain port regularly discharges accumulated wastewater and impurities from the air conditioner to maintain cleanliness and efficient operation. The water inlet connects to a water source to provide cooling water for water-cooled air conditioners. The overflow port automatically drains water when the water level is too high, preventing overflow and damage to the air conditioner. The coordinated operation of these three ports ensures stable and safe operation of the air conditioner in water-cooling mode.

[0063] The rationally designed outer shell design makes the air conditioner more compact and aesthetically pleasing, while also improving the overall structural stability and durability. The front and rear air inlet grilles ensure good air circulation inside the air conditioner, facilitating heat dissipation and improving cooling efficiency. The control panel's location and design allow users to easily set and adjust various air conditioner parameters, enhancing the user experience. The pressure gauge monitors refrigerant pressure in real time, identifying anomalies and preventing safety incidents. The design of the drain, water inlet, and overflow port also takes into account equipment maintenance and safety. The drain port makes regular cleaning and maintenance simple and convenient, while the overflow port prevents damage caused by excessive water levels.

[0064] like Figures 1 to 4 As shown, four pulleys 24 are evenly installed on the bottom of the air conditioner body.

[0065] In this embodiment of the utility model, four pulleys are evenly mounted on the bottom of the air conditioner body. These pulleys make the air conditioner easier to move and reposition. When the user needs to reposition the air conditioner, they only need to push or pull the air conditioner. The pulleys at the bottom will reduce friction, making the movement easy and quick.

[0066] By installing pulleys, users can easily move the air conditioner to the desired location without the need for complex disassembly and installation, improving its flexibility and convenience. Without pulleys, moving heavy equipment typically requires the collaboration of multiple people. With pulleys, however, a single person can easily complete the task, saving manpower and material resources. The pulley design reduces friction and scratches on the floor during movement, protecting the floor material and preventing wear on the bottom of the unit. Because the air conditioner can be easily moved, users can place it in a specific location as needed, making better use of limited space resources.

[0067] like Figures 1 to 4 As shown, outer wet curtain paper 15 and inner wet curtain paper 5 are provided on both sides of the condenser 3 , and the inner wet curtain paper 5 is used to isolate the water mist in the air passing through the outer wet curtain paper 15 and the condenser 3 .

[0068] In this embodiment of the utility model, air passes through the outer damp curtain paper 15. The moisture on the damp curtain paper absorbs heat from the air and evaporates, lowering the air temperature. The cooled air then flows to the condenser 3 for further heat exchange. After passing through the condenser 3, the air comes into contact with the inner damp curtain paper 5. The inner damp curtain paper 5 removes water mist from the air. When water vapor in the air encounters the cooler inner damp curtain paper, it condenses into water droplets and adheres to the damp curtain paper, thereby removing the water mist from the air and ensuring the cleanliness and dryness of the output air.

[0069] The evaporative cooling effect of the outer wet curtain paper 15 effectively reduces the temperature of the air entering the system, providing pre-cooling for the subsequent condenser 3, thereby improving the overall heat exchange efficiency. The provision of the inner wet curtain paper 5 not only removes water mist from the air to ensure the cleanliness of the output air, but also regulates the air humidity to a certain extent, providing suitable humidity conditions for specific environments (such as greenhouses and farms).

[0070] like Figures 1 to 4 As shown, the outer wet curtain paper 15 is connected to the inner wet curtain paper 5 , and the inner wet curtain paper 5 evenly distributes water to the outer wet curtain paper 15 .

[0071] In this embodiment of the present invention, when the air conditioner activates its cooling function, the inner wet curtain 5 immediately begins operation. It is tightly connected to the water pump 20 via a pipe, ensuring that water from the water tank is evenly and steadily delivered to the outer wet curtain 15. This precise water distribution mechanism ensures that every part of the outer wet curtain 15 is fully moistened. With this even coverage, the water on the outer wet curtain 15 begins to evaporate, effectively absorbing and removing heat from the surrounding air and water, thereby lowering the air temperature and evaporating the heat-carrying water molecules.

[0072] The design of the inner damp curtain 5 ensures that water is evenly distributed across the outer damp curtain 15. This uniform coverage allows each section of the outer damp curtain to effectively dissipate heat through evaporation, thereby improving heat dissipation efficiency. This high heat dissipation efficiency allows the air conditioner to reach and maintain the set temperature more quickly, reducing the operating time of core components such as the compressor and lowering energy consumption. This effective heat dissipation system prevents overheating, minimizes damage to internal components, and extends the overall lifespan of the air conditioner. The outer damp curtain removes heat through evaporation, lowering the ambient temperature while increasing humidity, providing a more comfortable environment for the user.

[0073] like Figures 1 to 4 As shown, the fan includes:

[0074] The blower 17 is provided above the housing 1 of the air conditioner body and delivers the cold air processed by the evaporator 4 to the designated work area;

[0075] The exhaust fan 19 is provided between the inner wet curtain paper 5 and the blower 17 and is used to evaporate the heat in the water when drawing air into the outer wet curtain paper 15 and the condenser 3, so that the water temperature of the water tank remains unchanged.

[0076] In this embodiment of the present invention, the blower 17 is located above the outer casing 1 of the air conditioner body. When it is started, it generates a strong suction force to draw in the cold air processed by the evaporator 4. This cold air is then sent to the designated work area to achieve rapid cooling. The exhaust fan 19 is arranged between the inner wet curtain paper 5 and the blower 17. When the exhaust fan 19 is working, it draws outside air into the space between the outer wet curtain paper 15 and the condenser 3. Since the evaporation of moisture on the outer wet curtain paper 15 requires the absorption of heat, the exhaust fan 19 helps to remove the heat from the air, so that the water temperature of the water tank can be maintained, thereby maintaining the continuous and efficient operation of the air conditioner.

[0077] The blower 17 ensures that the cold air processed by the evaporator 4 is quickly and efficiently delivered to the designated work area, thereby achieving rapid cooling. The exhaust fan 19 promotes the effective dissipation of heat in the water through evaporation, thereby maintaining the stability of the water temperature in the water tank. This design prevents excessive water temperature from negatively affecting system performance. Due to the action of the exhaust fan 19, the heat in the water can be removed more quickly, which helps to improve the working efficiency of the condenser 3, enabling it to cool the refrigerant more effectively. At the same time, it also helps the external wet curtain paper 15 to more effectively reduce the air temperature through evaporation, thereby improving the cooling efficiency of the air conditioner as a whole.

[0078] like Figures 1 to 4 As shown, the blower 17 is installed with an air supply pipe 18, and air is supplied through the air supply pipe 18 or open louvers, and the blower 17 can be a centrifugal fan or an axial flow fan.

[0079] In this embodiment of the present invention, blower 17 is responsible for delivering cooled air into the room. Blower 17 is equipped with an air supply duct 18 or employs open louvers for air delivery. When the air conditioner is operating, blower 17 delivers cooled air into the room through air supply duct 18 or open louvers, providing a cool and comfortable environment for the user.

[0080] The blower 17 can be a centrifugal fan or an axial flow fan. A centrifugal fan draws air from the center of the impeller and flings it toward the edge of the impeller through its rotation. The air is then delivered through the air duct 18 or open louvers. An axial flow fan, on the other hand, uses the rotation of the impeller to direct air along the impeller's axis, achieving the same air delivery effect.

[0081] By supplying air through the air supply duct 18 or open louvers, the direction and range of the air supply can be flexibly adjusted according to actual needs, ensuring that the cold air can be evenly distributed to every corner of the room, improving comfort. Both centrifugal fans and axial flow fans can provide efficient air supply capabilities. Centrifugal fans have the characteristics of large air volume and high air pressure, which are suitable for long-distance air supply; while axial flow fans have the advantages of simple structure and low noise, which are suitable for air supply over large areas. The combination of the air supply fan 17 and the air supply duct 18 or open louvers can ensure the efficient use of cold air and reduce energy waste.

[0082] like Figures 1 to 4 As shown, the electrical box 6 is electrically connected to the water pump 20.

[0083] In this embodiment of the present invention, electrical box 6 interacts with water pump 20 via an electrical connection. Specifically, electrical box 6 serves as the electrical control and distribution center, providing the necessary power and control signals to water pump 20. When water pump 20 needs to be started or stopped, electrical box 6 sends the corresponding electrical signal to control the power switch of water pump 20, thereby enabling remote control of water pump 20.

[0084] The electrical box 6 enables centralized control of the water pump 20, facilitating management and operation. Internally, the electrical box 6 is equipped with protective measures, such as overload and short-circuit protection, to ensure safe and reliable power supply to the water pump 20. This electrical connection allows for remote control from a distance, enhancing operational convenience. If the water pump 20 malfunctions, troubleshooting and repair can be performed through the electrical box 6, improving maintenance efficiency.

[0085] like Figures 1 to 4 As shown, the water pump 20 delivers cooling water into the condenser water separator 23 and the inner wet curtain paper 5 through the condenser water inlet pipe 21 and the outer wet curtain paper inlet pipe 22.

[0086] In this embodiment of the utility model, a water pump 20 serves as the power source, pumping and pressurizing cooling water. This pressurized cooling water is delivered through two main piping systems: one portion is delivered to the condenser water distributor 23 via the condenser water inlet pipe 21, and the other portion is delivered to the inner wet pad 5 via the outer wet pad paper inlet pipe 22. The condenser water distributor 23 and the inner wet pad paper 5 are responsible for evenly distributing the received cooling water to the condenser 3 and the outer wet pad paper, respectively, to ensure efficient heat exchange and evaporative cooling between the condenser and the outer wet pad paper.

[0087] The water distributor evenly distributes cooling water to the condenser and external cooling pads, ensuring uniform and efficient heat exchange and improving overall cooling system performance. The water pump 20 provides a steady water flow, ensuring continuous and effective cooling of the condenser 3 and external cooling pads, improving overall operating efficiency. Precisely controlling cooling water distribution avoids water waste, achieving more environmentally friendly and energy-efficient operation. This steady cooling water flow helps maintain equipment operating temperatures within a safe range, reducing malfunctions caused by overheating.

[0088] like Figures 1 to 4 As shown, the water in the condenser water separator 23 is transported to the upper part of the condenser 3, and the water flows from top to bottom and exchanges with the heat in the condenser to take away the heat.

[0089] In this embodiment of the present invention, the condenser water distributor 23 receives pressurized cooling water from the water pump 20 and evenly distributes it to the upper portion of the condenser 3. Once the cooling water enters the condenser 3, it flows downward from top to bottom, exchanging heat with the heat within the condenser 3. Specifically, the heat generated by the equipment in the condenser 3 is absorbed by the cooling water as it flows through it, causing the cooling water temperature to rise while simultaneously reducing the temperature of the condenser 3.

[0090] By flowing from top to bottom, the cooling water can fully exchange heat with every part of the condenser 3, ensuring effective heat transfer and dissipation, and improving the efficiency of the heat exchange. The design of the condenser water distributor 23 ensures that the cooling water can be evenly distributed to all parts of the condenser 3, thereby avoiding local overheating and achieving uniform cooling of the condenser. Through effective heat exchange, the operating temperature of the condenser 3 can be maintained within a safe range, avoiding equipment damage or performance degradation caused by overheating. The stable cooling process contributes to the smooth operation of the entire cooling system and reduces system fluctuations caused by temperature changes.

[0091] The above is a preferred embodiment of the present invention. It should be pointed out that for ordinary technicians in this technical field, several improvements and modifications can be made without departing from the principles described in the present invention. These improvements and modifications should also be regarded as the scope of protection of the present invention.

Claims

1. An integrated heat-free, low-carbon, energy-saving office air conditioner, characterized in that: include: Air conditioner body; A compressor (2) is disposed in the air conditioner body and converts the refrigerant from a low-pressure gas to a high-pressure gas; A condenser (3) is disposed in the air conditioner body and connected to the compressor (2) via a refrigerant pipe; an evaporator (4), arranged inside the air conditioner body, for receiving the liquid refrigerant processed by the condenser (3), and connected to the compressor (2) via a pipeline; A fan, arranged near the evaporator (4), for exhausting air or sucking cold air into a designated area; The electric box (6) is arranged inside the air conditioner body and is connected to the compressor (2) and the fan through electric wires to provide power and control signals.

2. The integrated heat-free, low-carbon, energy-saving office air conditioner according to claim 1 is characterized in that: The air conditioner body comprises: Housing (1); A front air inlet net (7) is provided on the front shell of the housing (1); a rear air inlet net (9) provided on the rear shell of the housing (1); A control panel (8) is arranged above the front air inlet net (7); An air outlet (10) is provided on the upper shell of the housing (1); Two pressure gauges (11) are provided and are arranged below the rear air inlet net (9); A sewage outlet (12) is provided at the bottom of the rear shell of the housing (1); a water inlet (13) arranged side by side with the sewage outlet (12) at the bottom of the rear shell of the housing (1); The overflow port (14) is arranged side by side with the sewage outlet (12) and the water inlet (13) at the bottom of the rear shell of the outer shell (1).

3. The integrated heat-free, low-carbon, energy-saving office air conditioner according to claim 2 is characterized in that: Four pulleys (24) are evenly installed on the bottom of the air conditioner body.

4. The integrated heat-free, low-carbon, energy-saving office air conditioner according to claim 3 is characterized in that: An outer wet curtain paper (15) and an inner wet curtain paper (5) are provided on both sides of the condenser (3), and the inner wet curtain paper (5) is used to isolate water mist in the air passing through the outer wet curtain paper (15) and the condenser (3).

5. The integrated heat-free, low-carbon, energy-saving office air conditioner according to claim 4 is characterized in that: The outer wet curtain paper (15) is connected to the inner wet curtain paper (5), and the inner wet curtain paper (5) evenly distributes water to the outer wet curtain paper (15).

6. The integrated heat-free, low-carbon, energy-saving air conditioner according to claim 5 is characterized in that the fan include: A blower (17) is provided above the housing (1) of the air conditioner body and delivers the cold air processed by the evaporator (4) to the designated work area; The exhaust fan (19) is arranged between the inner wet curtain paper (5) and the air supply fan (17) and is used to evaporate the heat in the water when drawing air into the outer wet curtain paper (15) and the condenser (3), so as to keep the water temperature of the water tank constant.

7. The integrated heat-free, low-carbon, energy-saving office air conditioner according to claim 6, characterized in that: The blower (17) is provided with an air supply pipe (18), and air is supplied through the air supply pipe (18) or an open shutter. The blower (17) can be a centrifugal blower or an axial flow blower.

8. The integrated heat-free, low-carbon, energy-saving office air conditioner according to claim 7, characterized in that: The electric box (6) is electrically connected to the water pump (20).

9. The integrated heat-free, low-carbon, energy-saving office air conditioner according to claim 8, characterized in that: The water pump (20) delivers the cooling water into the condenser water distributor (23) and the inner wet curtain paper (5) through the condenser water inlet pipe (21) and the outer wet curtain paper inlet pipe (22).

10. The integrated heat-free, low-carbon, energy-saving office air conditioner according to claim 9, characterized in that: The water in the condenser water separator (23) is transported to the upper part of the condenser (3), and the water flows from top to bottom and exchanges with the heat in the condenser to take away the heat.

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