Rotary Exciter Resonance for Selective Chemical Bond Ionization
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Solution Overview
Problem
Existing mechanochemical methods lack precise criteria for selecting resonant frequencies, limiting their effectiveness in excitation of various chemical elements beyond hydrogen and oxygen, and fail to provide a calculation algorithm for selective excitation of all elements in the Mendeleev's Periodic Table.
Innovation Solution
A method and device creating parametric resonance between the energy of stationary de Broglie waves and electromagnetic energy of Bohr orbits for any chemical element by using a rotary exciter with specific rotational parameters, such as peripheral velocity and groove distribution, to excite electron shells and ionize chemical bonds.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Measurement precision
If existing mechanochemical methods use general vibrational sources, then mechanical energy can be transferred to substances, but the excitation is not selective and lacks precision for specific chemical elements
Solution Approach 1:
The patent applies parameter changes by establishing specific mathematical relationships between rotor rotational speed, groove geometry, and the target chemical element's atomic properties. The rotor speed is precisely controlled to match the resonant frequency calculated from the element's atomic number and desired Bohr orbit, transforming a general vibrational source into a selective excitation system.
Solution Approach 2:
The patent employs preliminary action by pre-calculating the resonant frequency and rotor parameters before processing. The system determines the optimal rotational speed and groove dimensions based on the target chemical element's properties in advance, allowing the excitation process to be highly selective without requiring complex real-time adjustment mechanisms.
2Productivity
If general vibrational frequencies are used for excitation, then processing can be applied to any substance, but the efficiency is low due to lack of resonance matching
Solution Approach 1:
The patent applies mechanical vibration principles by using a rotary exciter with radially distributed grooves that generate controlled vibrational frequencies. The rotor's rotational motion creates periodic forces that resonate with the target chemical element's natural frequency, dramatically improving energy transfer efficiency and processing productivity.
Solution Approach 2:
The system employs periodic action through the rotor's continuous rotation, which generates rhythmic vibrational cycles. The periodic passage of material through the grooves at precisely timed intervals ensures repeated resonant excitation, accumulating energy transfer effects and enhancing processing efficiency while maintaining controlled energy consumption.
3Adaptability or versatility
If resonant excitation is applied to destroy chemical bonds, then selective processing of specific elements is achieved, but the method is limited to hydrogen and oxygen only
Solution Approach 1:
The patent achieves universality by developing a generalized calculation method that can determine resonant frequencies for any chemical element based on its atomic number and desired Bohr orbit. The same rotor design and excitation mechanism can be applied to process different elements by simply adjusting the rotational speed according to pre-calculated parameters, making the system versatile across the entire periodic table.
Solution Approach 2:
The system maintains frequency accuracy for different elements through parameter changes in the rotor's operational characteristics. By varying the rotational speed and selecting different groove configurations, the system precisely matches the resonant frequency for each target element while maintaining the same fundamental excitation mechanism, thus achieving both versatility and precision.
4Measurement precision
If high rotational speeds are used to achieve electron shell excitation, then selective excitation of chemical elements is possible, but the energy consumption increases
Solution Approach 1:
The patent applies partial action by exciting only the specific chemical element's electron shells that correspond to the target Bohr orbit, rather than attempting to excite all possible transitions simultaneously. This selective approach concentrates energy on the desired atomic transitions, achieving high excitation selectivity while minimizing unnecessary energy consumption from non-target excitations.
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
Achieves selective and efficient destruction or synthesis of chemical bonds in solids, liquids, and gases, enabling applications like mineral destruction, molecular bond disruption, and gas compound synthesis, with low energy consumption and high efficiency.
Implementation Method 1
there are 'stationary Bohr orbits' on which de Broglie waves exist
Implementation Method 2
creating parametric resonance of energies in the atoms of chemical elements in a substance
Data Source
AI summary
A method and an apparatus for creating parametric resonance of energies in atoms of chemical elements in a substance. The method and device are based on the excitation of chemical elements in the composition of the substance by creating artificial conditions for Bohr orbits in atoms of chemical elements using a rotary exciter. The method includes feeding the substance into the inner cavity of the rotor, its passing through the grooves (4) evenly distributed over the peripheral surface, followed by the release of the treated substance. The device includes a housing including a base (1) and a side wall, while the inner space of the housing is made in the form of separate grooves (4), evenly located relative to the outer surface of the rotor, a peripheral annular wall (8), input (5) and output (6) branch pipes. The disclosed method and device provide parametric resonance in atoms of chemical elements in the substance between the energy of the “stationary waves” de Broglie and the electromagnetic energy of corresponding Bohr orbits.