DESC:4. DESCRIPTION
Technical Field of the invention

The invention relates to an automated air cooler control system, specifically focusing
on integrating low power wireless transmitter and IoT modules to allow for remote
control and monitoring of the air cooler's operation.

Background of the invention

The present invention pertains to the domain of automated control systems for air coolers, specifically focusing on integrating low-power wireless transmitters and Internet of Things (IoT) modules to allow for remote control and monitoring of air coolers' operation. Air coolers, commonly known as evaporative coolers, have gained widespread popularity as energy-efficient and environmentally friendly alternatives to conventional air conditioning systems. Despite their advantages, these devices often face significant challenges that affect their overall performance and user satisfaction.

Air coolers operate by drawing warm air through water-saturated pads, causing water to evaporate and cool the air before it is distributed into the room. Unlike traditional air conditioning systems that rely on refrigerants and compressors, air coolers employ a natural and sustainable process of evaporative cooling. However, the efficiency and effectiveness of air coolers are heavily influenced by external environmental factors, such as ambient temperature and humidity. Users often struggle to achieve and maintain optimal cooling conditions, leading to discomfort and inefficient energy use.

Typically, room air coolers come equipped with basic control mechanisms that allow users to adjust fan speeds and water pump operations. These manual controls require constant user intervention to achieve desired comfort levels, making it challenging to maintain consistent cooling performance. The reliance on manual adjustments not only reduces user convenience but also leads to energy wastage when the air cooler is operated at higher settings than necessary.

In recent years, the demand for smart home automation and intelligent devices has surged, driven by consumers' desire for greater control, energy efficiency, and enhanced living experiences. Smart homes integrate various devices and systems to provide convenience, energy savings, and improved environmental management. Several prior art solutions have attempted to address the limitations of conventional air cooler controls by incorporating automated features and remote monitoring capabilities.

One prior art solution involves the use of smart thermostats that can automatically adjust cooling settings based on predefined schedules or real-time environmental data. While these devices offer improved energy management and user convenience, they are primarily designed for traditional HVAC systems and may not be directly applicable to air coolers. Another approach involves IoT-enabled appliances that can be controlled remotely via smartphones or home automation systems. These devices provide users with the ability to monitor and adjust their appliances' settings from anywhere. However, the integration of IoT technology in air coolers is still in its nascent stages, and existing solutions may lack the comprehensive functionality needed for optimal performance.

Some prior art systems incorporate automated environmental sensors to monitor ambient conditions and adjust cooling settings accordingly. These systems aim to enhance cooling efficiency and user comfort by dynamically responding to changes in temperature and humidity. However, they may still require manual intervention for fine-tuning and may not provide seamless integration with other smart home devices.

Despite the advancements in smart home technology and automated control systems, existing solutions for air coolers still exhibit several disadvantages that limit their effectiveness and user satisfaction. Many existing solutions lack seamless integration with other smart home devices and systems. This limitation reduces the overall functionality and convenience of the automated control systems, as users may need to rely on multiple apps or interfaces to manage their home environment.

Furthermore, current solutions often fail to provide real-time feedback and visibility into the air cooler’s operation. Users are left uncertain about the effectiveness of their cooling settings, leading to trial-and-error adjustments that undermine the benefits of automation. The absence of visible feedback mechanisms can result in suboptimal cooling performance and user dissatisfaction.

Energy efficiency is another area where existing solutions fall short. While some automated systems attempt to optimize energy usage, they may not account for the full range of environmental variables that impact cooling efficiency. Consequently, users may still experience high energy bills and environmental impact due to inefficient air cooler operation. Additionally, the lack of user-friendly interfaces and intuitive control options can deter users from fully utilizing the capabilities of automated air cooler systems. Complicated setup processes and confusing interfaces can lead to frustration and reduced adoption of these technologies.

There is a dire need for a system that addresses these shortcomings by providing an advanced, integrated solution for automated air cooler control. Such a system should enable users to remotely monitor and adjust air cooler settings in real-time, leveraging IoT connectivity and low-power wireless communication. It should also incorporate visible feedback mechanisms to provide users with clear insights into the system’s performance, enhancing user confidence and satisfaction. By dynamically adjusting cooling settings based on real-time environmental data, the system should optimize energy efficiency and ensure consistent comfort levels, contributing to both cost savings and environmental sustainability.

The present invention aims to fulfill this need by delivering a comprehensive automated air cooler control system that integrates seamlessly with smart home environments, provides real-time feedback, and maximizes energy efficiency. By leveraging cutting-edge technologies and user-centric design, this system promises to revolutionize the way air coolers are operated, offering a smarter, more efficient, and more convenient cooling solution.

Brief Summary of the invention

The following presents a simplified summary of the disclosure in order to provide a basic understanding to the reader. This summary is not an extensive overview of the disclosure, and it does not identify key/critical elements of the invention or delineate the scope of the invention. Its sole purpose is to present some concepts disclosed herein in a simplified form as a prelude to the more detailed description that is presented later.

The primary object of the present invention is to provide an advanced automatic ambience monitoring and control system for air coolers. This system aims to enhance the efficiency and effectiveness of air coolers by integrating modern technologies such as low-power wireless transmitters and Internet of Things (IoT) modules. The goal is to allow for remote control and monitoring, thus improving user convenience and comfort.

Another object of the invention is to address the inefficiencies of traditional air cooler controls, which often operate at fixed settings regardless of varying ambient conditions. By dynamically adjusting cooling parameters based on real-time environmental data, the invention aims to optimize cooling performance, reduce energy consumption, and provide consistent comfort levels.

A further object of the invention is to enable seamless integration with smart home systems, allowing users to monitor and control their air coolers through centralized home automation platforms or mobile devices. This integration enhances the user experience by providing a unified interface for managing multiple home appliances and systems.

Additionally, the invention seeks to provide a retrofit capability that allows the advanced control system to be added to existing air coolers. This feature is intended to extend the useful life of current cooling equipment, reduce waste, and make the benefits of the new technology accessible to a broader range of users.

Another significant object is to include visible feedback mechanisms that provide real-time information about the air cooler’s operation and environmental conditions. This feedback is essential for users to understand and trust the automated adjustments made by the system, thereby increasing user satisfaction and confidence.

Lastly, the invention aims to contribute to environmental sustainability by minimizing unnecessary cooling and reducing energy consumption. By using intelligent control algorithms and real-time data processing, the system ensures that energy is used efficiently, supporting global efforts to reduce carbon emissions and combat climate change.

The present invention relates to an automatic ambience monitoring and control system specifically designed for air coolers. At the core of the system is a pump and blower control receiver module that adjusts the air cooler's mechanical operations, such as fan speed and water pump activity, based on data received from a remote sensor. This sensor is equipped with advanced temperature and humidity detectors, allowing for continuous monitoring of ambient air conditions within the environment where the air cooler is deployed.

The system incorporates a low-power transmitter that facilitates wireless communication between the remote sensor and the control receiver module. This transmitter supports either Infrared (IR) or Radio Frequency (RF) technologies, ensuring accurate and prompt data relay. The ability to wirelessly transmit environmental data is critical for the system's functionality, allowing for real-time adjustments to cooling settings in response to changing conditions.

An optional IoT module is integrated into the system to expand its capabilities by connecting the air cooler to external devices and cloud services. This connectivity enables remote monitoring and control, allowing users to manage their air cooling systems via mobile devices or centralized home automation systems. The IoT module provides enhanced flexibility and convenience, enabling users to make adjustments from anywhere and at any time.

The invention also includes a power supply unit that can be either mains or battery-powered, ensuring uninterrupted operation of the remote sensor and the overall system. This feature is crucial for maintaining consistent performance, especially in environments where power interruptions are frequent. The power supply ensures that the system continues to function effectively, providing reliable cooling control under various conditions.

Additionally, the system features a holder or pedestal that supports and positions the remote sensor within the room. Proper placement of the sensor is essential for accurate monitoring of ambient conditions, allowing the system to make precise adjustments to the air cooler's operation. The holder ensures that the sensors have optimal exposure to the room’s environment, enhancing the overall effectiveness of the system.

The invention's control unit processes the data received from the temperature and humidity sensors, using intelligent algorithms to determine the optimal cooling settings. These settings include blower speed and water circulation, which are adjusted dynamically based on real-time environmental conditions. By continuously monitoring and responding to ambient data, the system ensures that the air cooler operates efficiently, providing consistent comfort while minimizing energy use.

Visible feedback mechanisms are incorporated into the system to display real-time information about the air cooler’s operation, such as temperature, humidity, and active features. This feedback is crucial for user confidence, allowing homeowners to understand and trust the automated adjustments made by the system. The display unit provides clear and concise information, enhancing user interaction and satisfaction.

The retrofit capability of the system allows it to be added to existing air coolers, making the advanced technology accessible to a wider range of users. This feature not only extends the useful life of current cooling equipment but also reduces waste, contributing to environmental sustainability. Users can upgrade their air coolers with the new system without needing to replace the entire unit, making it a cost-effective solution.

The present invention offers several significant advantages over traditional air cooler control systems. One of the primary benefits is enhanced energy efficiency. By continuously monitoring ambient conditions and dynamically adjusting cooling settings, the system reduces power consumption, leading to notable cost savings for users. This energy efficiency also supports broader environmental goals by reducing carbon emissions and conserving natural resources.

Another advantage is improved user convenience. The integration of IoT connectivity allows users to control their air coolers remotely, providing flexibility and ease of use. Whether at home or away, users can monitor and adjust their cooling systems via smartphones or home automation platforms, ensuring optimal indoor environments at all times. This remote control capability enhances the overall user experience, making it easier to maintain comfort and efficiency.

The system also offers superior comfort optimization. By making intelligent decisions based on real-time data from embedded sensors, the system maintains consistent indoor conditions, adjusting cooling parameters to respond effectively to changes in the environment. This results in a more comfortable living space, as the air cooler can automatically adapt to fluctuating temperatures and humidity levels.

The retrofit capability of the system is another significant advantage, allowing users to upgrade their existing air coolers with the latest technology. This feature makes the benefits of the invention accessible to a broader audience, reducing the need for new equipment and supporting sustainable practices. Users can enhance the performance of their current air coolers without incurring the costs associated with purchasing new units.

The inclusion of visible feedback mechanisms provides users with real-time information about the air cooler’s operation, increasing confidence in the system’s performance. This feedback allows users to understand how the system adjusts to environmental conditions, making it easier to trust and rely on the automated control features. The display unit enhances user interaction and satisfaction, providing clear and useful information about the system's operation.
In terms of applications, the automatic ambience monitoring and control system is highly versatile and can be used in various settings. In residential environments, the system significantly enhances living conditions by ensuring consistent comfort regardless of external weather variations. This makes it an invaluable addition to any modern home, particularly in regions prone to extreme temperatures.

In commercial spaces such as offices, retail outlets, and restaurants, the system provides a stable and comfortable atmosphere, improving the overall customer experience and boosting employee productivity. By maintaining optimal indoor conditions, the system contributes to a more pleasant and efficient working environment.

Industrial applications are also notable, as the system can effectively manage air conditions in large spaces such as warehouses and manufacturing plants. Ensuring that products and workers are kept in optimal conditions is crucial for productivity and safety, making the system an essential tool for industrial climate control.

Specialized settings like hotels, healthcare facilities, and educational institutions can also benefit from the system. In hotels, the ability to automatically adjust cooling to enhance guest comfort can significantly improve satisfaction and lead to better reviews and repeat business. In healthcare facilities, optimal air conditions are vital for patient recovery and comfort, making the system an essential tool for managing climate control in sensitive environments.

Furthermore, the system is relevant for data centers and IT infrastructure, where precise temperature and humidity control is critical to prevent equipment failure and ensure operational continuity. Its application in agriculture, particularly in greenhouses, helps create ideal growing conditions, thus boosting yield and improving the quality of produce.
In summary, the automatic ambience monitoring and control system for air coolers offers a comprehensive solution that enhances energy efficiency, user convenience, and comfort. By leveraging advanced technologies and intelligent algorithms, the system optimizes air cooler performance, providing a smarter, more efficient, and environmentally friendly cooling solution for various applications.

Further details, features, and advantages of the invention are provided in the following description of the preferred embodiments, along with accompanying drawings.

Brief Description of the Drawings

The above and other objects, features and advantages of the invention will become apparent from a consideration of the following detailed description presented in connection with the accompanying drawings in which:

Fig. 1 illustrates an automatic ambience monitoring and control system for air coolers, in accordance with an exemplary embodiment of the present invention;

Fig. 2 illustrates the block diagram of an automatic ambience monitoring and control system for air coolers, in accordance with an exemplary embodiment of the present invention.

Detailed Description of the invention

It is to be understood that the present disclosure is not limited in its application to the details of construction and the arrangement of components set forth in the following description or illustrated in the drawings. The present disclosure is capable of other embodiments and of being practiced or of being carried out in various ways. In addition, it is to be understood that the phraseology and terminology used herein is for the purpose of description and should not be regarded as limiting.

The use of “including”, “comprising” or “having” and variations thereof herein is meant to encompass the items listed thereafter and equivalents thereof as well as additional items. The terms “a” and “an” herein do not denote a limitation of quantity, but rather denote the presence of at least one of the referenced items. Further, the use of terms “first”, “second”, and “third”, and the like, herein do not denote any order, quantity, or importance, but rather are used to distinguish one element from another.

According to an exemplary embodiment of present invention, the automatic ambience monitoring and control system for air coolers represents a significant advancement in the field of environmental control within enclosed spaces, particularly focusing on improving air cooler efficiency through automation and technological integration. This system is designed to address several core issues associated with traditional air coolers, such as high energy consumption, lack of adaptability to varying environmental conditions, and user inconvenience in operation. By incorporating a combination of sensors, low-power wireless communication technology, and optionally, Internet of Things (IoT) connectivity, this invention offers a sophisticated solution to optimize the operation of air coolers, making them more energy-efficient, user-friendly, and environmentally sustainable.

The invention involves a comprehensive system comprising multiple components that work in synergy to enhance air cooler performance. At the heart of the system is a pump and blower control receiver module, which is crucial for adjusting the air cooler's mechanical operations such as fan speed and water pump activity based on data received from a remote sensor. This sensor is equipped with advanced temperature and humidity detectors, allowing for continuous monitoring of ambient air conditions within the environment where the air cooler is deployed. The ability of the system to adjust cooling parameters in real-time based on this data is central to its functionality, ensuring optimal cooling efficiency and user comfort. The display unit (9) with the buttons to operate manually and display unit display the temperature and the features which are active or inactive.

Wireless communication within the system is facilitated by a low-power transmitter, which supports either Infrared (IR) or Radio Frequency (RF) technologies. This transmitter enables seamless communication between the remote sensor and the pump and blower control receiver module, ensuring that data regarding environmental conditions is accurately and promptly relayed. This communication is critical for the system's ability to make immediate adjustments to cooling settings, responding dynamically to changes in the environment.

Optionally, the system can include an IoT module, which expands its capabilities by connecting the air cooler to external devices and cloud services. This integration allows for remote monitoring and control, providing users with the ability to manage their air cooling systems via mobile devices or centralized home automation systems. This feature significantly enhances user convenience, allowing adjustments to be made from anywhere, thereby not only improving comfort but also aiding in energy management by avoiding unnecessary operation when cooling is not needed.

The design of the system also incorporates a power supply unit, which can be either mains or battery-powered, ensuring uninterrupted operation of the remote sensor and continuous functionality of the system. This feature is important for maintaining consistent performance, especially in situations where power interruptions are frequent.

The invention is supported by various embodiments that demonstrate its adaptability to different types of air coolers and environmental conditions. For instance, the ability to retrofit the pump and blower control receiver module onto existing air coolers makes this technology accessible to a wider range of users who may not wish to replace their current devices. Additionally, the use of environmentally friendly components and processes aligns with global sustainability efforts, making this system not only beneficial for individual users but also contributory to broader environmental goals.

Now referring to drawings, Figure 1 provides a comprehensive visual representation of the entire system setup. It illustrates how various components of the automatic ambience monitoring and control system are interconnected, showing their interaction and data flow within the system. At the center of the diagram is the Remote Sensor (3), which plays a pivotal role in environment monitoring. The Remote Sensor (3) is equipped with Temperature and Humidity Sensors (8a, 8b) housed within a Sensory Module (3b). These sensors continuously assess the ambient conditions, collecting crucial data on temperature and humidity levels.

The Remote Sensor (3) communicates wirelessly with the Pump and Blower Control Receiver Module (2) via a Low-Power Transmitter (6). The wireless communication is facilitated using either Infrared (IR) or Radio Frequency (RF) technology, depending on the specific configuration of the system to enabling wireless communication for remote control (10) and real-time adjustments. This transmitter (6) ensures that the data captured by the Remote Sensor (3) is promptly and accurately relayed to the Control Receiver Module (2), which is tasked with processing the information to manage the air cooler’s operations effectively.

Additionally, the diagram may show an Optional Internet of Things (IoT) Module (7) integrated with the Pump and Blower Control Receiver Module (2). This IoT Module (7) extends the system’s capabilities by enabling connectivity with external devices and cloud services, thus supporting remote monitoring and control functionalities. This integration allows users to adjust settings and monitor the system’s performance through their smartphones or other home automation systems, providing enhanced flexibility and convenience.

The entire setup is supported by a Power Supply (5), which is essential for the uninterrupted operation of the Remote Sensor (3) and the overall system. The power supply can be configured to draw from mains electricity or be battery-operated, ensuring consistent functionality regardless of external power conditions. This component is critical for maintaining the reliability and effectiveness of the system, particularly in environments where power interruptions are common.

Figure 1 also includes a depiction of a Holder/Pedestal (4), which is used to appropriately position the Remote Sensor (3) within the room. This ensures that the sensors have optimal exposure to the room’s environment, allowing for accurate and effective monitoring of ambient conditions.

This figure and its detailed descriptions are instrumental in understanding the operational framework and component interaction within the "automatic ambience monitoring and control system for air coolers," providing a clear and concise visual reference for how the system functions to enhance air cooler efficiency, user convenience, and environmental sustainability.

The effectiveness of the "Automatic Ambience Monitoring and Control System for Air Coolers" was evaluated through a series of rigorous tests designed to assess various aspects of the system, including the accuracy of environmental monitoring, reliability of wireless communication, functionality of the pump and blower control, energy efficiency, and the overall impact on user comfort and environmental sustainability.

Firstly, the precision and reliability of the temperature and humidity sensors housed within the Remote Sensor were tested under a range of environmental conditions to ensure accurate readings. The results showed that the sensors provided consistent and reliable data, capturing even slight variations in temperature and humidity with a high degree of accuracy. This capability is crucial for the system's ability to make real-time adjustments to the air cooler's settings, ensuring optimal operation based on current ambient conditions.

The wireless communication system's effectiveness, using both Infrared (IR) and Radio Frequency (RF) technologies, was also tested to evaluate its reliability in transmitting sensor data to the Pump and Blower Control Receiver Module. The tests confirmed that the communication link maintained strong and consistent signal integrity, with no significant data loss or delay observed, even over extended ranges and through various physical obstructions typically found in residential and commercial settings.

Functionality tests on the Pump and Blower Control Receiver Module focused on its responsiveness and accuracy in adjusting the air cooler’s operations based on the data received from the Remote Sensor. The module successfully processed the incoming data and made precise adjustments to the cooler’s fan speed and water pump settings, demonstrating its capability to enhance cooling efficiency and adapt to changing environmental conditions effectively.

Energy efficiency was a key aspect of the testing phase, with the system being monitored for its power consumption under various operating conditions. The results indicated a significant reduction in energy usage compared to traditional air cooling systems, attributed to the system's ability to intelligently modulate its operations rather than running at maximum capacity regardless of cooling needs. This not only leads to cost savings on energy bills but also contributes to a lower environmental impact by reducing unnecessary power consumption.

Lastly, the overall impact on user comfort and environmental sustainability was assessed. Users reported a noticeable improvement in comfort levels due to the system’s ability to maintain a consistent and desirable indoor climate, automatically adjusting to fluctuations in external temperatures and humidity levels. Additionally, the environmental benefits of the system were highlighted by its contribution to reducing carbon emissions through optimized energy usage, aligning with broader sustainability goals.
,CLAIMS:5. CLAIMS
I/We Claim:
1. An automatic ambience monitoring and control system (1) for air coolers, comprising:
a pump and blower control receiver module (2) receives data from the remote sensor (3) and adjusts the air cooler's pump and blower functions;
a remote sensor (3) including:
a transmitter (3a) configured to enable wireless communication within the system;
a sensory module (3b) housing temperature and humidity sensors (8a, 8b) configured for continuous monitoring of ambient air conditions;
the low-power transmitter (6) facilitates communication between the remote sensor (3) and the pump and blower control receiver module (2);
a power supply (5) configured to ensure uninterrupted operation of the remote sensor (3), said power supply being mains or battery-powered;
a holder/pedestal (4) configured to support and position the remote sensor (3) within the room where the air cooler is situated;
a display unit (9) for displaying the temperature, humidity and other features to enable or disable;
Characterized in that,
a low-power transmitter (6) configured to operate using Infrared (IR) or Radio Frequency (RF) technology to enabling wireless communication for remote control (10) and real-time adjustments;
wherein the pump and blower control receiver module (2) receive data from the remote sensor (3) via the low-power transmitter (6) to adjusts the air cooler's pump and blower functions based on the received data; and
an optional Internet of Things (IoT) Module (7) integrated with the pump and blower control receiver module (2) to enabling connectivity with external devices and cloud services;

2. The system (1) as claimed in claim 1, wherein the remote sensor (3) continuously detects ambient air temperature and humidity using the temperature and humidity sensors (8a, 8b) within the sensory module (3b) to make intelligent cooling decisions.

3. The system (1) as claimed in claim 1, wherein the pump and blower control receiver module (2), in conjunction with data received from the temperature and humidity sensors (8a, 8b), determines optimal air cooler settings, including blower speed and water circulation, to maintain desired comfort levels.

4. The system (1) as claimed in claim 1, wherein the low-power transmitter (6) enables remote control (10) and monitoring of the air cooler's operation through wireless communication, using either Infrared (IR) or Radio Frequency (RF) technology.

5. The system (1) as claimed in claim 1, facilitating real-time communication between the remote sensor (3) and the pump and blower control receiver module (2), wherein the pump and blower control receiver module (2) enables swift adjustments to the air cooler's operation based on current environmental conditions.

6. The system (1) as claimed in claim 1, where the controller unit adjusts the pump activation and blower speed based on real-time data from the temperature and humidity sensors (8a, 8b), thus optimizing cooling efficiency.

7. The system (1) as claimed in claim 1, wherein the holder/pedestal (4) is included to support and position the remote sensor (3) within the room where the air cooler is situated.

8. The system (1) as claimed in claim 1, further comprising an Internet of Things (IoT) Module (7) integrated with the pump and blower control receiver module (2) to expand system capabilities by enabling connectivity with external devices and cloud services.

9. The system (1) as claimed in claim 1, providing energy-efficient and environmentally friendly cooling solutions by adapting the air cooler's operation according to real-time weather conditions, resulting in reduced power consumption and a reduced environmental footprint.

10. A method for operating an automatic air cooler, the method comprising:
monitoring air conditions using temperature and humidity sensors (8a, 8b) within a remote sensor (3);
transmitting ambient air condition data wirelessly from the remote sensor (3) to a pump and blower control receiver module (2) using a low-power transmitter (6);
adjusting pump and blower of the air cooler based on the received data by the pump and blower control receiver module (2);
supporting and positioning the remote sensor (3) within the room where the air cooler is situated using a holder/pedestal (4);
enabling connectivity with external devices and cloud services using an Internet of Things (IoT) Module (7);
ensuring uninterrupted operation of the remote sensor (3) using a power supply (5);
dynamically adjusting the air cooler's pump and blower functions in real-time based on the received data and ambient air conditions to enhancing cooling efficiency, comfort, and energy conservation.