Cybernetic Feedback Bio-Thermal Water Cycle and Condensation Ecosystem Station

Abstract

This invention is a cybernetic feedback desktop laboratory system that enables the concrete teaching of the water cycle, evaporation, and condensation processes in elementary science education. The invention primarily consists of a topographic base unit (S1) representing the Earth's surface, PTC ceramic heating pads (S2) that simulate solar energy to initiate evaporation, a transparent biomimetic dome (S3) that isolates the thermodynamic process from the external environment, and a Peltier chiller module (S4) that creates high-altitude cold air currents to rapidly condense water vapor. Changes in humidity and temperature within the system are read in real-time by a hierarchical network of sensors (S6) placed at different altitudes. Students actively intervene in the thermodynamic process by manually adjusting the heating and cooling intensity via analog linear sliders (S7) located on the external panel.All raw data from the sensors (S6) and sliders (S7) is processed by the microprocessor (S9) and converted into pedagogical guidance on the information screen (S10) to manage the student's cognitive load. This structure allows the student to produce their own rain by manipulating natural phenomena, thus enabling them to generate actionable solutions to everyday life problems such as drought or water management.

Description

TARIFF CYBERNETIC FEEDBACK BIO-THERMAL WATER CYCLE AND CONDENSATION ECOSYSTEM STATION 1. Technical Area This invention relates to educational technologies, mechatronic systems, and science pedagogy. 5 The invention is particularly useful for fourth-grade elementary school students to learn about the water cycle, phase changes, and thermodynamic processes; physical intervention, haptic feedback, and cybernetic guidance accompanied by experiences using everyday life problem-solving skills It is about a desktop ecosystem simulator that provides... 2. State of the Art 10 In current technology, elementary school level water cycle experiments are generally "passive" and "isolated". It is carried out through mechanisms. Commonly used transparent containers or bags. The method of placing it in water and leaving it in sunlight (e.g., "Jar Ecosystems"), This limits the controllability and repeatability of the thermodynamic process. Furthermore, In current educational materials, the condensation process is a "waiting" action dependent on the ambient temperature. 15 it remains as it is, allowing the student to intervene in the process and change the outcome. He does not know. For example, climate simulation chambers are described in various patents; however, these systems It is intended for industrial testing purposes and provides cybernetic feedback suitable for the cognitive load of a primary school student. It does not involve loops and haptic interference devices (analog sliders). The invention relates to evaporation and 20 By activating condensation processes independently and under student control, nature by presenting these events as "engineering problems," it deviated from the known state of the art. They are separating. 3. The Technical Problem Solved by the Invention Current educational materials teach the water cycle and phase change processes to students in 25 years. They present them as passive and closed systems that they can only observe from the outside and cannot intervene in. This allows the student to internalize abstract thermodynamic concepts and solve problems. This prevents the development of skills. This invention is an analog device located on the device. through linear sliders (S7) the heating pads (S2) in the topographic base unit (S1) its temperature and the intensity of the cooling module (S4) at the apex of the biomimetic dome (S3) The system solves this technical problem by leaving the task entirely under the student's physical control. The data coming from the sensor network (S6) is processed by the microprocessor control unit (S9) and displayed on the information screen (S10). By providing cybernetic feedback, it can predict scenarios such as drought or excessive evaporation. It transforms the environment into an interactive ecosystem that is directly managed and manipulated by the students. 4. Purposes of the Invention The main purpose of the invention is to introduce abstract and long-term natural phenomena, such as the water cycle, in a classroom setting. The goal is to transform it into a tangible and controllable experiment that takes place within minutes. Other The objectives are as follows: 10 • Students will explore the causal relationship between "Heat / Energy" and "Phase Change" using analog sliders. to enable them to explore physically through. • Through cognitive feedback loops (S10), feedback is generated to the student's actions (evaporation). To offer a "smart lab assistant" experience with instant responses (speed, etc.). • Global problems such as water resource management and drought (DLPS), student 15 transforming it into an ontological experience that he solves by "producing rain" himself. • By transferring the data (humidity, temperature) to the main database via MQTT (S11), individual To ensure that experiments result in a collective harvest of scientific data. 5. Brief Description of the Invention The invention reduces ground evaporation thanks to the PTC ceramic heating pads (S2) located at its base, 20 Atmospheric condensation is simulated thanks to the Peltier cooler module (S4) at the peak. It is an ecosystem station consisting of a transparent biomimetic dome (S3). The student, the device by increasing the temperature of the topographic base unit (S1) with the analog linear sliders (S7) on it It monitors water evaporation. Humidity saturation is read by the hierarchical sensor network (S6). When the critical threshold is reached, the system alerts the student to "start the rain." The student's cooling 25 By activating the slider (S7), the vapor droplets are directed to the conical droplet guide grid (S5). It condenses on the surface and falls back to the earth, completing the thermodynamic water cycle (S8). All This process is analyzed by the microprocessor control unit (S9) and both the TFT on the device Central data is displayed both on the LCD information screen (S10) and via the database transfer unit (S11). It is reported on the basis of 30. 6. Explanation of the Figures Figure 1: Subject of the invention: "Bio-Thermal Water Cycle and Condensation with Cybernetic Feedback" The structural equipment of the "Ecosystem Station", the thermodynamic phase change cycle, Showing the sensor-microprocessor integration and the kinesthetic control interface as a whole. This is a schematic cross-section and perspective view. 5 7. Reference List of Figures S1: Topographic Base Unit (Water catchment basin and stepped land surface) S2: PTC Ceramic Heating Pads (Solar energy and terrestrial evaporation simulator) S3: Transparent Biomimetic Dome / Glass Dome (Leakproof atmospheric insulation) S4: Peltier Chiller Module (High-altitude cold front) 10 S5: Conical Droplet Diverter Grid S6: Hierarchical Sensor Network (SHT31 temperature, humidity sensors placed at ground, mid-range and peak altitudes) and pressure sensors) S7: Analog Linear Sliders / Potentiometers (Heat / Evaporation providing Kinesthetic input) (and Cooling / Condensation control interface) 15 S8: Thermodynamic Water Cycle (The transition of water to gas and its condensation on the Peltier surface) (the process of returning to the ecosystem as rain) S9: Microprocessor Control Unit (ESP32-S3 WROOM) S10: TFT LCD Information Display (Pedagogical interface providing cybernetic feedback) S11: Cloud and Main Database Transfer Unit (Data transfer via MQTT protocol over Wi-Fi) (transfer) 8. Detailed Description of the Invention 8.1. Topographic Base Unit and Bio-Thermal Heating Module (S1, S2) As shown in Figure 1, the system includes "sea / lake" areas where water will be collected and evaporation ABS polymer base unit (S1) with a stepped topographic structure representing its surfaces It is built on top of this unit. Underneath this unit, there are 5 structures that simulate the heating of the earth by the sun. The integrated PTC ceramic heating pads (S2) are detailed in the right middle part of Figure 1. These pads (S2), limited to a maximum of 60°C, have been used to study the evaporation kinetics of water. It starts. Topographic slopes cause rainwater falling from above to flow back to the center of the heaters. By enabling its collection, it creates a closed and infinite thermodynamic water cycle (S8). 8.2. Biomimetic Dome and Ecosystem Isolation (S3) 10 Figure shows how the thermodynamic process can be isolated from the external environment and observed in 360 degrees. 1. Biomimetic dome made of transparent acrylic / polycarbonate material forming the outer shell. (S3) is mounted to the base unit (S1) with airtight seals. This insulation prevents evaporation. It ensures that the water rises directly into the upper atmosphere without losing mass. 8.3. Atmospheric Cooling and Condensation Module (S4, S5) 15 Figure 1 shows that the ecosystem is located at its highest point (apex) and at high altitude. It has a separate Peltier cooler module (S4) that simulates cold air waves. When the hot water vapor rising from the layers hits this cold front, it suddenly changes state. It turns into liquid. The cone shown in Figure 1, located on the inner surface of the Peltier module (S4). The drip guide grid (S5) prevents the random dispersion of condensed water, directing it to the bottom 20 (S1) causes the raindrops to fall in specific areas. 8.4. Hierarchical Sensor Network and Thermodynamic Data Acquisition (S6) The thermodynamic changes inside the glass container (S3) are shown in the right part of Figure 1. with three high-precision sensor networks (S6) placed at ground, mid and peak points It is followed by millisecond delays. This hierarchical structure is based on the temperature in the lower layer and the upper 25 By calculating the "Dew Point" between the coldest and coldest layers, the saturation limit of water vapor can be determined. It measures in real time. 8.5. Analog Control Interface and Kinesthetic Intervention (S7, S8) The pedagogical center of the invention is the analog linear sliders (S7) located on the outer front panel of Figure 1. Instead of a digital or automated loop, the student uses these physical sliders (S7) Using these, the student must manually adjust the base temperature (S2) and peak cooling (S4). In this way, abstract thermodynamic concepts are controlled by muscle memory in a Daily Life 5 It transforms the problem into a solution. 8.6. Cybernetic Processor and Pedagogical Feedback Loop (S9, S10) Figure 1 shows the microprocessor control located in the isolated compartment in the lower right part of the device. Unit (S9) detects all sensor (S6) and slider (S7) movements in the system. The microprocessor (S9), By running cybernetic algorithms, the TFT LCD information display, positioned precisely in the center of Figure 1, is displayed. It provides ontological and guiding feedback to the student via the screen (S10). 8.7. Collective Data Harvesting and Network Integration (S11) When each experimental cycle is complete, the system displays the obtained data in the lower right corner of Figure 1. The smart class uses a Wi-Fi network via the represented database transfer unit (S11). It transfers the data to the whiteboard and the school database. Thus, individual manipulations are recorded class-wide. 15 It turns into a comparative scientific analysis. 9. Industrial Applicability This invention is highly suitable for mass production with the current technical and industrial infrastructure capabilities. and has wide industrial applicability in the education materials sector. 9.1. Manufacturing and Material Supply: The topographic base unit (S1), which is the outer body of the invention, is manufactured using 20 Plastic injection is the most common and cost-effective plastic molding method in the industry. molded using a molding technique, it is impact-resistant and recyclable ABS (Acrylonitrile Butadiene). It can be mass-produced from styrene polymer. The transparent biomimetic dome (S3) part is standard. Polycarbonate can be manufactured at low cost using vacuum molding or blow molding methods. 9.2. Accessibility of Electronic Components: The electronic hardware used in the system includes; PTC 25 ceramic heating pads (S2), Peltier cooling modules (S4), ESP32-S3 based microprocessor control units (S9), SHT31-based hierarchical sensor networks (S6) and analog linear sliders (S7) standard in the market, extremely robust supply chain and low cost These are the components. This situation reduces the cost of producing specialized parts to zero during the transition from R&D to production. It downloads. 9.3. Commercialization and Target Market: The invention can be used in science laboratories of schools, in STEM (Science, Technology, Engineering, and Mathematics) projects. (Technology, Engineering and Mathematics) in workshops, science centers and home-based educational settings. They are designed to be directly launched on the market as sets. The modular nature of the assembly processes is 5 (Plug and play), making maintenance easier and offering logistical advantages as the device can be disassembled. Optimizes storage and transportation costs by enabling packaging and shipping. is doing.

Claims

REQUESTS 1. In primary school science education, the classroom activities for the units "Matter and its Nature" and "The Water Cycle". its tangible application in a laboratory setting and in daily life, such as drought / water management. Cybernetic feedback designed to solve problems in a practical way. This is a desktop Bio-Thermal Condensation Ecosystem Station with the following features: 5 • Representing the lake / sea areas where water will collect and the evaporation surfaces, made of heat-resistant ABS polymer with a stepped and sloping topographical surface manufactured topographic base unit (S1), • Located directly below the aforementioned topographic base unit (S1), the earth's surface Electronic thermostat controlled PTC ceramic heater 10 that simulates solar heating energy. pads (S2), • Completely isolating the atmospheric ecosystem from the external environment, the thermodynamic process 360° making the degree visible and mounted to the base unit (S1) with airtight seals Transparent biomimetic dome (S3), • Cold air at high altitude placed at the apex of the transparent dome (S3) 15 A standalone Peltier cooler module that condenses water vapor by simulating currents. (S4), • Topographic of condensed water droplets attached to the cold surface of the Peltier module (S4). Conical grid (S5) that directs to specific regions of the base (S1), • Hierarchical sensor 20 located at ground, mid and top altitude points within the dome (S3) network (S6), • The PTC heating pads (S2) at the base are located on the device's external ergonomic panel. its temperature and the intensity of the Peltier cooler module (S4) on top, hardware-wise. two analog linear sliders (S7) that regulate, • To process thermodynamic data received from the sliders (S7) and sensor network (S6) 25 Microprocessor control unit (S9) located in an isolated compartment, • Data reaching the microprocessor (S9) is analyzed using cybernetic algorithms for pedagogical purposes. information screen (S10) which converts directions and • Database transfer unit that transmits experimental cycle data over a Wi-Fi network. It is characterized by containing (S11). 30 2. It is a Bio-Thermal Condensation Ecosystem with cybernetic feedback according to Claim 1, and its characteristic is; The topographic base unit (S1) collects the condensed raindrops that fall back onto the heating pad (S2) It contains capillary water pathways that direct water to the main water reservoir in which it is located, and thus (S8) It is characterized by its creation of the thermodynamic water cycle.

3. It is a Bio-Thermal Condensation Ecosystem with cybernetic feedback according to Claim 1, and its characteristic is; The hierarchical sensor network (S6) calculates the temperature difference between the ground and the peak, thus determining "Dew The microprocessor (S9) instantly transmits the "Point" value and the information screen (S10) displays this value as 5 It is characterized by giving the student a visual alarm when approached.

4. It is a Bio-Thermal Condensation Ecosystem with cybernetic feedback according to Claim 1, and its characteristic is; On the outer casing of the device, the current going to the PTC heating pads (S2) is reduced when the base temperature exceeds 65°C. It is characterized by having a hardware-based bimetal thermal fuse mechanism that cuts off the circuit. It is done. 10 5. Educational use of the Bio-Thermal Condensation Ecosystem Station specified in Claim 1. the method is; • The student can control the heater on the base unit (S1) via analog linear sliders (S7). By activating the pads (S2), it initiates evaporation within the water cycle (S8), • Moisture saturation data read via hierarchical sensor network (S6) is processed by microprocessor 15 (S9) analyzed by cybernetic algorithms, • Student cooling down through pedagogical guidance received via the information screen (S10) by activating the slider (S7) it activates the Peltier module (S4) and on the grid (S5) manually triggering condensation It is characterized by including process steps. 20

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