Multi-Level Tower Electron Emission System
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Solution Overview
Problem
Existing systems for modifying atmospheric conditions by electrically charging the atmosphere are limited by the need for large areas and pose safety hazards due to high-voltage wires, making them difficult to install in urban spaces and inefficient in electron emission.
Innovation Solution
A system comprising a tower with multiple rods and emission wires arranged in a polygonal configuration at different heights, allowing for controlled emission and absorption of electrons to modify atmospheric conditions, with a power source and control unit to manage voltage and electron flow based on meteorological data.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Device complexity
If emission wires are stretched radially from a single support tower at one level, then the device structure is simplified, but the emission wires converge near the upper point causing reduced electron emission efficiency
Solution Approach 1:
The antenna structure is segmented into multiple levels with rods positioned at different heights (first level with rods 42, second level with rods 62). Emission wires are distributed across these levels rather than converging at a single point, allowing each wire to operate independently at optimal emission distances from the tower, thus maintaining structural simplicity while improving electron emission efficiency
Solution Approach 2:
The invention transitions from a single-level radial configuration to a multi-level three-dimensional arrangement. Rods are positioned at different vertical heights (H1 and H2) on the tower, creating a spatial distribution that eliminates wire convergence issues while maintaining radial symmetry, effectively adding the vertical dimension to the emission wire arrangement
2Productivity
If thin wires are stretched obliquely to emit maximum electrons, then electron emission is optimized, but a large area is required for antenna placement creating safety hazards
Solution Approach 1:
The invention utilizes the vertical dimension by positioning rods at multiple heights (H1 above ground, H2 above ground) on a single tower structure. This three-dimensional arrangement allows emission wires to be distributed vertically, achieving high electron emission from a compact footprint that occupies minimal ground area, thereby eliminating the need for large-area fencing and security measures
3Area of stationary object
If emission wires are placed close to the tower for compact installation, then space is saved, but wire proximity causes convergence and cessation of electron emission
Solution Approach 1:
The emission wires are segmented and assigned to different vertical levels (first set of wires from first-level rods, second set from second-level rods). This segmentation ensures that each wire maintains an optimal distance from the tower along its entire length, preventing convergence and maintaining high emissivity while achieving compact horizontal installation
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
The system increases electron emission efficiency, allowing for effective modification of precipitation, air pollution, and wind patterns in a controlled area while ensuring safety and compact installation, overcoming the limitations of previous technologies.
Implementation Method 1
a device which emits electrons into the atmosphere is used... at which a maximum electrons are released into the atmosphere for a given wire length
Data Source
AI summary
A system (10) for modifying atmospheric conditions is disclosed. The system (10) comprises a tower (20), at least one first rod (42) and at least one second rod (62), each of the at least one first rod (42) and the at least one second rod (62) coupled to the tower (20) to extend from the tower (20) and define an end distal (46, 66) from the tower (20), wherein the at least one second rod (62) is spaced apart from the at least one first rod (42) along a height (HT) of the tower (20). The system (10) further includes a first set of emission wires (70) extending between the end (46) of the at least one first rod (42) and the end (66) of the at least one second rod (62).