Mosquito Trap Using CO2 Lure and Suction Neutralization
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Solution Overview
Problem
Mosquitoes pose a nuisance and health risk due to biting and disease transmission, and existing solutions are inadequate in effectively attracting and neutralizing them over a wide area.
Innovation Solution
A mosquito trap utilizing attractants like plants and carbon dioxide, combined with a fan system to suck mosquitoes into rotating blades and a water reservoir containing toxins to neutralize eggs, larvae, and possibly the mosquitoes themselves, with a fan system to disperse attractants over a larger area.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Area of stationary object
If conventional mosquito control methods are used, then mosquitoes can be controlled locally, but they cannot be effectively neutralized over a wide area
Solution Approach 1:
The trap is divided into functionally independent chambers: a first chamber for attraction (containing attractants and CO2 generation) and a second chamber for neutralization (containing fan and toxin reservoir). This segmentation allows each chamber to optimize its specific function while working together to achieve wide-area effective mosquito control.
Solution Approach 2:
Carbon dioxide serves as an intermediary substance that bridges the attraction mechanism and the target mosquitoes. The CO2 is generated within the trap and released to create an attractant plume that draws mosquitoes from distant areas into the trap's coverage zone, thereby extending the effective area without sacrificing reliability.
2Length of stationary object
If attractants are used to lure mosquitoes from distant areas, then the effective range increases, but the complexity of the device increases
Solution Approach 1:
Multiple attraction mechanisms are merged into a single integrated system: chemical attractants, plant-based attractants, and carbon dioxide generation are combined in the first chamber. This consolidation achieves extended attraction range while managing device complexity through unified design rather than separate independent systems.
Solution Approach 2:
The first chamber serves multiple functions simultaneously: it houses attractants, generates CO2, and acts as the entry zone for mosquitoes. This multi-functionality reduces the need for separate components, thereby extending attraction capabilities without proportionally increasing device complexity.
3Productivity
If a fan system is used to create suction airflow, then mosquitoes are drawn into the trap effectively, but energy consumption increases
Solution Approach 1:
The mechanical suction system is supplemented and partially replaced by natural mosquito behavior. Mosquitoes are naturally attracted to CO2 and other attractants, providing passive guidance toward the trap. This reduces the burden on the mechanical fan system, maintaining high capture efficiency while lowering energy consumption compared to purely mechanical suction systems.
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
Effectively attracts and kills mosquitoes from a distance of up to 3 miles, preventing bites and mitigating disease spread by using a combination of attractants and neutralizing mechanisms.
Implementation Method 1
a fan in the storage body and below the water tank, the fan configured to create a suction airflow from the one or more air inlets to the one or more exhaust vents
Implementation Method 2
a water reservoir tank that produces carbon dioxide, yeast scent, and mosquito larvae scent which mosquitoes may be attracted to
Data Source
AI summary
A mosquito trap is disclosed herein that may be configured to have one or more mosquito attractants to lure such insects inside of the trap and kill them with one or more neutralizing mechanisms. The one or more mosquito attractants may include a plant that mosquitoes are attracted to and also a water reservoir tank that produces carbon dioxide, and yeast smell which mosquitoes may be attracted to such gas. The one or more neutralizing mechanisms may include a toxin in the water reservoir tank, such as a larvicide, that neutralizes mosquito eggs, larvae, and possibly the mosquitoes themselves. Also, the one or more neutralizing mechanisms may include a fan system that creates a suction airflow pulling the mosquitoes inside the trap and towards the rotating blades of the fan to collide there with and be killed or pulled down bellow to vents to be dried.