What it does
water surface garbage collection device is designed to efficiently collect and sort debris in shallow water areas. It features a flat hull, a sorting conveyor system, and an automatic compression module to maximize waste storage and reduce operational costs.
Your inspiration
The inspiration for this design came from the increasing environmental concerns about water pollution, particularly floating waste in urban water bodies and sensitive ecological areas. After observing the inefficiency and high labor costs associated with manual cleaning, I realized the need for a more effective and automated solution. This device incorporates advanced technologies like automated garbage sorting, compression, and shallow water adaptability, inspired by successful international systems, but tailored for local needs, focusing on minimizing environmental impact while enhancing operational efficiency.
How it works
How it works: This water surface garbage collection device is designed to efficiently clean, classify, compress, and store garbage from water surfaces. The system consists of several key components: Garbage Collection System: A streamlined hull design with a ladder-type conveyor belt elevates the garbage at a 30° angle while filtering out water. The garbage is then moved to the sorting module, where a crank-driven reciprocating mechanism allows efficient separation of soft and hard waste. Garbage Sorting System: Soft waste, such as water plants or algae, is filtered into a temporary storage bin, while larger hard waste like plastic bottles and foam is directed into a compressible storage bin. Garbage Compression and Storage: A unique scissor-type compression device is used to compact the collected garbage, reducing its volume by 50-70%, thereby maximizing storage capacity and efficiency.
Design process
Conceptualization The initial concept focuses on the need to address water surface pollution efficiently. We identified that traditional cleaning methods are ineffective in shallow water areas and that current technology lacks automation in waste sorting. The aim was to design a vessel that could operate in shallow waters, sort waste types automatically, and increase storage efficiency. Design Development The next step was to refine the design. We opted for a streamlined hull design to reduce drag and ensure better maneuverability in shallow waters. The conveyor belt system was chosen for waste collection, with a mechanism to filter out water. We integrated an innovative waste compression module to enhance storage efficiency. Prototype Construction The prototype was built, focusing on the integration of the waste collection, classification, and compression systems. A key challenge was ensuring that the sorting mechanism could distinguish between soft and hard waste effectively. We conducted several iterations to perfect the filtering and separation process. Testing and Refinement During testing, we focused on performance in shallow waters, the efficiency of the conveyor belt, and the functionality of the waste compression system.
How it is different
What sets it apart: This water surface garbage cleaning vessel stands out due to its comprehensive, intelligent design for shallow water adaptation, efficient waste sorting, and automatic compression for maximized storage. Unlike traditional models, it features a flat hull and anti-stranding sensor system, making it capable of cleaning in shallow waters where others cannot operate. Additionally, its ladder-style conveyor belt and separation system enable precise sorting of soft and hard waste, significantly improving recycling efficiency. The compression module automatically reduces waste volume by 50-70%, enhancing storage capacity and reducing operational costs. It is particularly suited for eco-sensitive areas, such as city waterways and conservation zones, addressing the growing demand for zero-emission cleaning solutions in such areas.
Future plans
Future Plans The future development of this water surface garbage cleaning vessel focuses on improving the efficiency and adaptability of its systems. Key goals include enhancing the AI-powered navigation system for autonomous operation, expanding the capabilities of the garbage compression system to handle more waste types, and integrating real-time monitoring and data analysis features to optimize performance. Additionally, exploring new energy sources such as wind or tidal power for hybrid operation will reduce dependency on solar energy.
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