Portfolio Details

IoT-Based Water Quality Monitoring & Smart Peripheral Control | SDG Alignment: 6, 9, 12, 13

Date

Running

Client

NGOs, Govt. , Farmers

IoT

AquacultureIoT

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Project Overview

Water quality plays a pivotal role in farming and aquaculture. Poor water conditions lead to lower yields, increased mortality rates, and unnecessary energy wastage. Traditional monitoring methods are often manual, inaccurate, and time-consuming, leading to reactive decision-making rather than proactive management.

This IoT-based solution continuously monitors pH, Dissolved Oxygen (DO), Ammonia Levels, and Water Temperatureβ€”automatically adjusting aerators and pumps based on predefined thresholds to maintain an optimal aquatic environment. Farmers and aquaculture professionals can also remotely control operations via mobile or web-based dashboards, giving them unprecedented control over their water systems.

Impact Measurement

πŸ“ Deployed across 8 districts, impacting 30 farmers.
🀝 Collaborated with 6 NGOs to implement sustainable water management practices.
⚑ Achieved up to 20% energy savings through optimized aerator and motor operations.

Key Features & Advantages

1. Real-Time Water Quality Monitoring

βœ” 24/7 Tracking: Continuously monitors pH, DO, ammonia, and water temperature.
βœ” Instant Alerts: Sends notifications when water quality drops below optimal levels.
βœ” Historical Data & Trends: Helps farmers make data-driven decisions.

Example: If Dissolved Oxygen drops below the safe limit, the system automatically activates aerators to restore oxygen levels and prevent fish mortality.

2. Smart Peripheral Control (Automatic + Manual Mode)

βœ” Threshold-Based Automation: Aerators and pumps activate only when needed, reducing energy consumption.
βœ” Remote Access: Farmers can manually override settings via a mobile/web dashboard.
βœ” Multi-Device Integration: Compatible with various aerators, motors, and pumps.

Example: Farmers can schedule aerator operations during off-peak electricity hours to save energy while maintaining optimal oxygen levels.

3. Increased Yield & Survival Rates

βœ” Stable Water Conditions: Reduces stress on aquatic species, improving growth rates.
βœ” Early Detection of Water Issues: Prevents sudden fish deaths, ensuring higher profitability.
βœ” Adaptive System: Adjusts to seasonal and environmental changes without human intervention.

Example: By preventing ammonia buildup and ensuring optimal pH, fish survival rates increase significantly, leading to higher yields.

4. Energy & Cost Savings

βœ” Up to 20% Less Energy Consumption: Aerators and pumps only run when necessary.
βœ” Lower Maintenance Costs: Smart scheduling reduces wear and tear on motors and aerators.
βœ” Optimized Resource Utilization: Ensures minimal water wastage and reduced chemical usage.

Example: Instead of keeping aerators running 24/7, intelligent automation activates them only when oxygen levels drop, cutting energy costs.

5. Sustainability & SDG Impact

🌱 SDG 6 (Clean Water & Sanitation) β†’ Ensures safe water for aquaculture and agriculture.
🏭 SDG 9 (Industry, Innovation & Infrastructure) β†’ Leverages IoT & AI for efficient water management.
♻️ SDG 12 (Responsible Consumption & Production) β†’ Reduces waste & optimizes water usage.
🌍 SDG 13 (Climate Action) β†’ Lowers carbon footprint by reducing unnecessary energy consumption.