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• - OBJ + MTL (.obj, .mtl) – Wavefront format, widely used and compatible
• - STL (.stl) – Exported mesh geometry; may be suitable for 3D printing with adjustments
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• - 3ds Max (.max) – Provided for 3ds Max users
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• - Rhino (.3dm) – Provided for Rhino users

Model Info
• - All files are checked and tested for integrity and correct content
• - Geometry uses real-world scale; model resolution varies depending on the product (high or low poly)
• • - Scene setup and mesh structure may vary depending on model complexity
• - Rendered using Luxion KeyShot
• - Affordable price with professional detailing

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More Information About 3D Model :
The IoT Control Hydroponic Plant Plastic Water Bottle Container Pond describes an integrated, often small-scale and DIY (Do-It-Yourself) agricultural system that combines Internet of Things (IoT) technology with hydroponic plant cultivation, primarily utilizing repurposed plastic water bottles as individual growing containers or reservoirs. This innovative approach aims to automate, monitor, and optimize plant growth by leveraging readily available materials and smart technology, thereby making advanced hydroponics more accessible, resource-efficient, and environmentally conscious.

Core Components and Principles:

1. Container System (Plastic Water Bottle Container Pond): At the heart of this system is the repurposing of standard plastic water bottles (e.g., 0.5 to 2 liters) into self-contained plant growth modules. These bottles are typically modified to serve as miniature reservoirs or ponds for a nutrient-rich water solution, directly supporting the plant's root system. Common configurations include:
   
2. Kratky Method: The bottle is cut to create a lower reservoir for the nutrient solution and an upper section or net cup holder for the plant, where roots are partially submerged and partially exposed to air, drawing solution as needed.
   
3. Deep Water Culture (DWC): Similar to Kratky, but often includes an air stone and pump to oxygenate the nutrient solution, preventing root rot and promoting healthier growth.
   
4. Wicking Systems: A wick draws nutrient solution from the bottle reservoir up to the plant's root zone, which may be encased in an inert growing medium within the bottle's upper section.
   This design emphasizes waste reduction by giving plastic bottles a second life in urban or home gardening contexts.
   
   
5. Hydroponic Method (Hydroponic Plant): The system operates without traditional soil, providing plants with essential mineral nutrients dissolved directly in water. This method ensures efficient nutrient uptake, often leading to faster growth rates and significantly reduced water consumption compared to conventional soil-based agriculture. The choice of plant is crucial; typically, leafy greens, herbs, and small fruiting plants are well-suited for these compact setups.
   
   
6. IoT Control (IOT Control): The integration of IoT elements transforms a passive hydroponic setup into an intelligent, data-driven system capable of remote monitoring and automation. This typically involves:
   
7. Sensors: Microcontrollers (e.g., ESP32, ESP8266, Arduino with Wi-Fi modules) are connected to various sensors to monitor critical environmental and solution parameters. Common sensors include pH sensors (to measure acidity/alkalinity), Electrical Conductivity (EC) sensors (to determine nutrient concentration), water level sensors, ambient temperature and humidity sensors, and light intensity sensors.
   
8. Actuators: Based on sensor data and predefined thresholds, the IoT system can control actuators such as miniature pumps (for nutrient solution circulation, refilling, or pH/EC adjustment), LED grow lights, and small fans for air circulation.
   
9. Connectivity & Data Logging: Data collected by sensors is transmitted wirelessly (ee.g., via Wi-Fi, Bluetooth) to a cloud platform or a local server. This enables real-time remote monitoring of plant conditions via a smartphone application or web interface. The system logs historical data, allowing users to analyze growth patterns, optimize settings, and troubleshoot issues.
   
10. Automation: The system can be programmed to automatically adjust environmental factors (e.g., turning on lights, activating pumps for nutrient dosing or water top-ups) to maintain optimal conditions for plant growth, minimizing manual intervention.
    
    Operational Principles:
    The system continuously or periodically monitors the critical parameters within the bottle-pond and its immediate environment. When a parameter deviates from its optimal range (e.g., pH too low, EC too high, water level too low), the microcontroller executes pre-programmed actions or sends alerts to the user. For instance, if the water level drops, a pump might activate to replenish the reservoir. If nutrient concentration is off, alerts can be sent for manual adjustment or, in more advanced systems, automated dosing.
    
    Advantages:
    
11. Environmental Sustainability: Repurposes plastic waste, reducing landfill burden and promoting circular economy principles.
    
12. Resource Efficiency: Hydroponics inherently uses significantly less water, and IoT further optimizes nutrient and water usage.
    
13. Accessibility & Cost-Effectiveness: Utilizes inexpensive and readily available materials, making advanced hydroponics accessible to hobbyists, educators, and communities with limited resources.
    
14. Educational Tool: Provides a hands-on platform for learning about sustainable agriculture, electronics, programming, and data analysis.
    
15. Space-Saving: Ideal for urban environments, small apartments, or indoor cultivation due to its compact and modular nature.
    
16. Data-Driven Optimization: Allows for precise control over growing conditions, leading to optimized plant health and yield.
    
    Challenges and Considerations:
    
17. Scalability: While effective for individual plants, scaling up significantly can become cumbersome due to the manual maintenance requirements (refilling, cleaning) for each bottle.
    
18. Nutrient Management: Maintaining the correct pH and EC balance in small, isolated reservoirs requires frequent monitoring or precise automated dosing.
    
19. Sensor Calibration: pH and EC sensors require regular calibration and maintenance to ensure accuracy.
    
20. Power Supply: IoT components require a reliable power source, which might be a consideration for off-grid applications.
    
21. Biological Contamination: Small, potentially stagnant water bodies in bottles can be prone to algal growth or pathogen development if not properly managed.