Secure Vessel Networking for Microplastic Collection Without Delays
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Solution Overview
Problem
Existing technologies fail to efficiently collect micro-plastics from aquatic environments without delaying vessels reaching their destinations, necessitating a system that optimizes collection routes in real-time.
Innovation Solution
A vessel-mounted system that includes a collection unit, sensors, a communication device, and a processing unit to predict and optimize routes for maximum micro-plastic collection, utilizing air bubbles to adhere and separate plastics, and secure peer-to-peer communication between vessels.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Quantity of substance
If a vessel deviates from its original route to collect micro-plastics, then the amount of micro-plastics collected increases, but the time to reach the destination increases
Solution Approach 1:
The system performs preliminary actions by predicting micro-plastic accumulation locations and optimizing collection routes in advance using sensor data and machine learning algorithms, allowing the vessel to efficiently deviate only when and where micro-plastics are likely to be found, thus minimizing time loss while maximizing collection quantity
Solution Approach 2:
The system continuously receives real-time feedback from sensors monitoring micro-plastic concentrations and environmental conditions, dynamically adjusting the vessel's route to balance collection efficiency with destination timing, ensuring optimal performance without excessive delays
2Quantity of substance
If multiple vessels operate independently to collect micro-plastics, then each vessel can collect micro-plastics, but the overall collection efficiency is reduced due to redundant paths and missed high-concentration areas
Solution Approach 1:
The system merges the operations of multiple vessels into a coordinated fleet by enabling them to share sensor data and communicate through a peer-to-peer network, allowing them to collectively cover larger areas and efficiently divide high-concentration zones, thereby increasing total collection while maintaining individual vessel productivity
Solution Approach 2:
Each vessel is equipped with universal communication capabilities and standardized sensor suites that allow them to function both independently and as part of a coordinated fleet, enabling flexible deployment scenarios from solo operations to multi-vessel cooperative missions
3Ease of operation
If vessels share data openly without verification, then communication between vessels is simple, but the reliability of shared information is compromised
Solution Approach 1:
Each vessel autonomously verifies the authenticity of received data by checking digital signatures and validating sensor readings against local environmental conditions, eliminating the need for centralized verification while maintaining high reliability and keeping the communication system simple and decentralized
Applied Scientific Principles
This section explains which scientific principles are used to turn an abstract innovation direction into a practical engineering solution.
Function Achieved in This Case
Enables efficient collection of micro-plastics without delaying vessel journeys by predicting optimal routes based on environmental data and securing vessel-to-vessel communication.
Implementation Method 1
the micro-plastics adhere to the air bubbles generated by the air bubble generation unit
Data Source
AI summary
The present invention provides a system for establishing a secured digital interconnection between vessels and optimizing a route of a vessel (1) for collecting maximum micro-plastics (30) from an aquatic environment, the system comprising: a collection unit (40) through which water containing micro-plastics (30) flows, a first set of sensors (60) operationally coupled to the collection unit (40) and configured to generate a first set of data by periodically measuring amount of micro-plastics (30) flowing in the collection unit (40), a second set of sensors (70) operationally coupled to the vessel (1) and configured to generate a second set of data by monitoring local environmental conditions, a communication device communicatively coupled to the vessel (1) and configured to authenticate ID, timestamp and location of other vessels and then communicate the first set of data and the second set of data between other vessels in the aquatic environment, a processing unit (90) coupled to the first set of sensors (60), the second set of sensors (70) and the communication device and configured to receive and analyze the first set of data, the second set of data and a communicated data received from the other vessels to predicts the optimum route for collecting maximum micro-plastics (30) from the aquatic environment.