Electromagnetic Battery Endurance Device for Crystal Dissociation
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Solution Overview
Problem
Rechargeable batteries, particularly those with electrolytes, face short battery life due to incomplete charging and discharging, leading to frequent replacements, safety hazards, and environmental pollution, necessitating a solution to enhance their endurance and efficiency.
Innovation Solution
A rechargeable battery endurance enhancing device that transmits electromagnetic waves of specific frequencies to excite electrons in the battery, causing resonance and dissociation of chemical bonds, thereby maintaining optimal charge-discharge efficiency and extending battery life.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Duration of action of moving object
If conventional chemical rechargeable batteries are used, then they can provide power for electrified equipment, but their battery life is too short due to incomplete charging and discharging
Solution Approach 1:
The patent applies electromagnetic vibration (a form of mechanical vibration) by using an electromagnetic wave transmitter to generate specific frequency electromagnetic waves that resonate with and vibrate the crystal structure of substances like lead sulfate in the battery. This vibration breaks down the crystalline structure, converting it from an insulating state to an ionic state, thereby improving charging and discharging completeness and extending battery life.
Solution Approach 2:
The patent changes the physical and chemical parameters of the battery substances by applying electromagnetic waves of specific frequencies. This causes the substances to transition from a stable crystalline state to a more reactive ionic state, altering their electrical properties and enabling more complete charging and discharging cycles, thus resolving the contradiction between battery life and charging completeness.
2Productivity
If rechargeable batteries are replaced frequently due to short life, then equipment can continue operating, but maintenance costs increase significantly
Solution Approach 1:
The patent applies preliminary action by using the electromagnetic wave treatment device to pre-treat and optimize the battery's chemical substances before complete discharge occurs. This preliminary intervention restores the battery's chemical structure and extends its usable life, reducing the frequency of replacements and maintenance interruptions, thereby maintaining equipment productivity while reducing maintenance time and costs.
3Productivity
If batteries are not carefully replaced, then equipment can continue to run, but safety hazards occur such as burning, electric shock, or fire
Solution Approach 1:
The patent converts the harmful effect of accumulated lead sulfate and degraded chemical substances into a beneficial state by using electromagnetic waves to break down these harmful crystalline structures. This transformation eliminates safety hazards associated with improper battery handling while maintaining continuous equipment operation, as the battery can be extended and safely reused without risky replacement procedures.
4Ease of manufacture
If waste batteries are not properly recycled, then disposal is simple, but serious environmental pollution and health harm occur
Solution Approach 1:
The patent applies discarding and recovering by extending battery life through electromagnetic treatment, thereby delaying disposal and reducing waste. Additionally, the technology enables recovery of battery value by restoring degraded chemical substances to functional states, allowing batteries to be reused rather than discarded, thus reducing environmental pollution and health hazards while maintaining ease of battery management.
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 device significantly improves the endurance and service life of rechargeable batteries by minimizing power decline, enhancing environmental protection, and reducing maintenance costs.
Implementation Method 1
the excited electrons will jump to the position of high energy level, and are driven by the electric field of the electromagnetic wave to show simple harmonic motion (i.e. resonance effect or electromagnetic oscillation)
Implementation Method 2
the excited electrons will jump to the position of high energy level, and are driven by the electric field of the electromagnetic wave to show simple harmonic motion (i.e. resonance effect or electromagnetic oscillation)
Implementation Method 3
the excited electrons collide with lattice oscillation, when the energy of the oscillation and collision exceeds the binding force of the chemical bond, the molecular crystal structure inside the substance to be dissociated will crack
Data Source
AI summary
This invention relates to a rechargeable battery endurance enhancing device, the body of which at least includes a power module, a frequency adjustment module and a emission module. Said power module is provided with a voltage stabilizing member, a conversion unit and a protection circuit, said voltage stabilizing member is used to provide stable voltage and current, said conversion unit can automatically convert the input voltage and current, and said protection circuit can protect said body from being damaged by abnormal current or abnormal voltage. Said frequency adjustment module is provided with a frequency adjustment member and an electromagnetic wave transmitter, said frequency adjustment member is used to control the wavelength and frequency of the emitted electromagnetic wave, and the command of said frequency adjustment member causes said electromagnetic wave transmitter to generate an electromagnetic wave with designated wavelength and frequency. Said emission module is provided with an amplifier and a transmitting member, said amplifier can amplify the power of the electromagnetic wave generated by the electromagnetic wave transmitter of said frequency adjustment module, and then transmit the electromagnetic wave amplified by said amplifier through said transmitting member. Said transmitting member is used to connect the outside of a chemical rechargeable battery and emit electromagnetic waves to the chemical substances inside said chemical rechargeable battery from the outside, so the molecular crystal structure of the chemical substance is broken and dissociated into an ionic state to trigger the charging chemical reaction until said chemical rechargeable battery returns to the best discharge state.