Vortex Machine With Dual Inlet Fans And Microwave Heating
Find Innovative SolutionsGenerate Solutions
Solution Overview
Problem
Conventional vortex machines face limitations in intensifying vortex forces while maintaining low power consumption and high efficiency, particularly in applications requiring enhanced processing capacity for chemical reactions, comminution, and drying of difficult materials.
Innovation Solution
The vortex machine is modified with a unique mechanical configuration, including a flared inlet and outlet duct, dual inlet fans, wear liners, and the option to introduce microwave energy, which enhances vortex intensity and efficiency by optimizing rotor design, air flow, and energy input.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Productivity
If conventional vortex machines use a single fan rotor to generate cyclonic forces, then the structure is simple, but the vortex intensity and processing capacity are limited
Solution Approach 1:
The single fan rotor is segmented into two independent fan rotors (first and second fan rotors) that can rotate in opposite directions. This segmentation allows each rotor to contribute to generating intense vortex forces while maintaining manageable structural complexity through modular design. The opposing rotation directions create enhanced cyclonic effects that significantly increase processing capacity.
Solution Approach 2:
The invention transitions from a single-plane rotation system to a dual-plane counter-rotation system. By adding the dimensional aspect of opposing rotational directions, the system generates more intense three-dimensional vortex flows, thereby increasing processing capacity without simply scaling up a single rotor.
2Productivity
If the vortex tube diameter is increased to handle larger volumes, then processing capacity increases, but the device size and power consumption increase
Solution Approach 1:
The feed material is pre-heated in a separate heating zone before entering the main vortex drying chamber. This preliminary action prepares the material for more efficient vortex drying, reducing the energy required in the main processing zone and allowing smaller vortex tube dimensions for the same processing capacity.
Solution Approach 2:
The system maintains continuous counter-rotating vortex flows that efficiently dry material throughout the vortex tube length. This continuous intense vortex action maximizes drying efficiency per unit volume, reducing the overall tube diameter needed compared to conventional intermittent or less intense drying systems.
3Force
If high rotor speeds are used to intensify vortex forces, then vortex intensity increases, but power consumption and maintenance requirements increase
Solution Approach 1:
The first and second fan rotors rotate in opposite directions, creating counterbalancing forces that reduce net vibration and mechanical stress on the system. This counter-weight effect allows the system to maintain high vortex intensity without the proportional increase in power consumption and maintenance that would result from a single high-speed rotor experiencing unbalanced forces.
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
This configuration significantly increases the processing capacity of the vortex machine, enabling efficient handling of larger volumes, such as from 4,100 to 20,000 to 50,000 kilograms per hour, making it suitable for commercial-scale drying and chemical reactions while reducing power consumption and maintenance.
Implementation Method 1
a cyclone is formed from the rotation of the rotor 4 of the fan 8
Implementation Method 2
Cyclonic forces within the vortex which generate ultrasonic frequencies
Implementation Method 3
Cyclonic forces within the vortex which generate ultrasonic frequencies that result in electric and magnetic forces
Implementation Method 4
Microwave energy may also be introduced into the vortex machine to further intensify vortexian forces
Implementation Method 5
increasing the temperature at a micro level by many thousands of degrees Fahrenheit
Implementation Method 6
Shear forces acting in the vortex are capable of producing hydroxide ions, negative hydroxyl ions, hydrogen radicals, ozone, and hydrogen peroxide from water
Implementation Method 7
Shear forces acting in the vortex are capable of producing hydroxide ions, negative hydroxyl ions, hydrogen radicals
Implementation Method 8
The vortex is intensified to a critical point where the materials within the vortex are propelled outward at high speed
Implementation Method 9
a fan rotor at the outlet end to draw air in a vortex through the vortex tube
Data Source
AI summary
The invention concerns a vortex machine modified to intensify the vortex in the machine by installing inlet fans in addition to the main fan and modifying the configuration of the machine. Additional intensification of the vortex is achieved by introducing microwaves into the vortex machine. The vortex machine has a vortex tube, an inlet tube to the vortex tube at the inlet end, a feed inlet to the vortex tube between the inlet end and an outlet end and a fan rotor at the outlet en to draw air in a vortex through the vortex tube. An inlet fan in the inlet tube adapted to force air into the vortex tube. These modifications and additions achieve commercially viable capacities of the vortex machine in drying, grinding and process applications.