System and method for designing and manufacturing an improved combined multi-component washing and fire extinguishing device

Abstract

The process of washing surfaces using fluids is carried out in various ways. Despite the wide variety of equipment and tools available in this field, washing models are generally based on the use of a significant volume of water or fluid at a specific temperature and at normal ambient pressure, or the use of a very large volume of water vapor or fluid under high pressure and temperature, instead of using a stream of water or fluid. In this invention, an innovative and complex multifunctional system is presented that uses five different techniques to purposefully manipulate and engineer the intermolecular interactions of water molecules or any other suitable fluid that has cleaning and disinfecting effects on various surfaces. This device facilitates and accelerates the process of removing water or fluid flow from a surface by purposefully changing and manipulating the boiling point of the fluid through these five techniques. In addition, it minimizes the time required to dry the surface as well as the destructive, erosive, and oxidizing effects of the fluid on the surface.

Description

Description of the invention Title of the invention: System and method for designing and manufacturing an improved combined multi-component washing and fire extinguishing device

[0001] The process of washing surfaces with a fluid flow is carried out in various ways. Various devices and equipment have been created for this purpose and are used in various industries. The most common and economical fluid used in the washing process is water.

[0002] Despite the wide variety of equipment and tools available in this field, the washing pattern can be divided into two general methods. The first method is based on the use of a significant volume of water or fluid with a specific temperature range, usually between 20 and 50 ° C, at normal ambient pressure, along with various detergents and boosters such as surfactants to remove contaminants. The second method is based on the use of water vapor or fluid vapor under pressure. This method is carried out at temperatures above 100 ° C, usually between 121 and 134 ° C, and pressures between 1.2 and 2.1 bar. In this method, instead of using a stream of water or fluid, steam is used for washing and other processes such as sterilization (sterilization) with greater efficiency and intensity.

[0003] Despite their differences and various capabilities, these two methods still face similar problems and limitations. Among these challenges, the long washing process can be mentioned, which leads to the consumption of a huge volume of water or fluid. Also, drying and completely removing the remaining water or fluid on the surfaces after washing is time-consuming and expensive. In addition, prolonged contact of water or fluid molecules with various surfaces such as stone, ceramic, metal and alloy can cause their corrosion, abrasion and oxidation. In this invention, an innovative multifunctional system is presented that, using various techniques, engineers the molecular interactions of water and any other usable fluid that has cleaning and disinfecting effects of water or fluid molecules on various surfaces. This device also facilitates and accelerates the drying process by changing the boiling point and prevents damage caused by prolonged contact of the fluid with surfaces. Technical background:

[0004] The technical field of this invention is in the field of design and development of an advanced washing system for various surfaces, especially moisture-sensitive surfaces. This system, using a combination of advanced chemical, physical and fluid engineering techniques, improves the quality of washing and enables rapid removal of the fluid used in the washing process.

[0005] To search for this invention, International Patent Classification codes such as IPC and CPC can be used. The codes associated with this invention are: A01N29 / 02, A61K2800 / 21, A61K47 / 24. B7 / 0475, B05B7 / 0815, B05B1 / 1654, B08B3 / 12, B60S 1 / 481, B60S1 / 528, B64D1 / 18, C02F1 / 12, C02F1 / 32, C02F1 / 36, C02F1 / 48, C02F1 / 60. C02F1 / 74, C02F1 / 76, C07C21 / 18, C09K5 / 045, C09K2205 / 22, C09K23 / 00, C09K23 / 54, D06B 1 / 02, G01R33 / 032, G01R33 / 0322, G01R33 / 381, G02F1 / 00, G02F1 / 09, G02F1 / 0 036, H01F7 / 0278 and H01L21 / 67051. These codes can be used in search engines and international online databases to search for information related to this invention. History of the invention:

[0006] By searching for keywords such as "mechanical batteries", "spring-based batteries" and "spring energy storage" in international patent databases such as Google Patent, PatentScope and Lenz, similar patent documents and applications were obtained as follows:

[0007] US Patent No. 9764363B2, entitled "Drum Washing Machine Spray Washing Apparatus, Washing Method and Drum Washing Machine", filed on June 18, 2012, discloses a drum washing machine with a dual spray system for washing the glass in the washing machine door. The washer ring in this washing machine is equipped with a first spray nozzle that has two water inlets and a spray outlet and creates an L-shaped water flow path. The spray outlet angle of this nozzle can be changed between 30 and 150 degrees with respect to the inlet solenoid valve of the washing machine and is used to wash the outer surface of the door, the door washer ring, and also a second spray nozzle that is connected to the door washer ring and has an external cylinder inlet. The second nozzle, which is designed in the form of a groove in the cross section, is used to wash the folded inner wall of the door. The spray nozzles are connected to the washing machine's solenoid valve via a three-way pipe or connecting pipes. The dual spray system absorbs water and wets the clothes during the washing process.Also, this system can collect water and spray it to the protective door glass and door washer ring at the same time. In addition, during the drying phase of the clothes, the collected water is directed to the protective door and door washer ring through the spray inlet system.

[0008] Patent No. CN106388743B entitled "Environmentally friendly ultrasonic dishwashing apparatus and method", filed on November 10, 2016, provides an environmentally friendly dishwasher. The machine includes rotating baskets for placing dishes and a cleaning device. The cleaning device includes a pump, a rotating nozzle, a water tank, a rotation system, a water circulation system, a control system, an oil-water separator, and a set of motors and ultrasonic devices. In this method, after placing dishes in the baskets, two motors are activated and water is sprayed into the machine. The water consumption is controlled by a water level sensor. Finally, when the circulation pump is activated and the drain valve is opened, the remaining water is discharged from the machine. This washing method is performed with low water consumption and in an environmentally friendly manner.

[0009] Patent No. CN102512128B entitled "Domestic and Commercial Atomic Dishwasher", filed on December 16, 2011, introduces two types of atomic dishwashers, one for domestic use and the other for commercial use. In the domestic dishwasher, the sliding basket of dishes is first removed from the machine. Then, the dirty dishes are placed in the basket and put back into the machine. By pressing the start button, the solenoid valve is opened and water enters the tank through the inlet valve. After the tank is full, the solenoid valve is closed. In the next step, the fan is turned on and the water pump starts to work. At the same time, the electric heating element is also activated. The air blown by the fan passes through the condensate pipe, ozone generator, heating element and air outlet solenoid valve and enters the air outlet pipe. Then, this air enters the conical nozzle through the upper air pipe and mixes with water pumped through the filter and the water outlet solenoid valve. Finally, this air-water mixture is sprayed onto the containers in an atomized form.In addition to washing, this dishwasher also has the ability to dry, sterilize, and automatically add dishwashing powder.

[0010] Patent No. US20110155192A1 entitled "Automated Interior Washing System and Apparatus for Automobiles and Other Vehicles", filed on February 27, 2008, provides an automatic interior washing system for washing automobiles and vehicles. The system includes a movable assembly of pipes branching from a pressurized fluid supply and an assembly of liquid spray nozzles. The assembly is capable of spraying detergent, water, wax, and heat in a targeted manner to various points of the vehicle and controlling the washing process.

[0011] Patent No. US11517039B2, entitled “Water-based Vaporizable Liquids, Methods and Systems for Vaporizing the Same,” filed on February 8, 2019, discloses a series of electronic vaporizing devices that utilize a vaporizable liquid composed of water (water-based vaporizable liquid) and a personal vaporizer that includes a processor for controlling the operation and inducing the vaporization process by the personal vaporizer, a diffuser component for receiving liquid input from its reservoir, a vapor outlet portion, and an input / output device that uses an ultrasonic vibration element to amplify the water-based vaporizable liquid.

[0012] Patent No. TWM630922U entitled "Spray / Water Washing Model Equipped with Drum and Guide Roller", filed on December 28, 2021, provides a new model of spray and water washing units in which the drum and guide rollers rotate simultaneously. In this device, the drum drive mechanism is located transversely, as well as the lower row of upper and lower guide rollers, below the water level in the liquid tank. In this system, the water in the liquid tank cleans the surface of the structure and removes contaminants using a high-pressure spray, thereby increasing the washing capacity of this model.

[0013] Patent No. US11035521B2, entitled "Method and system for controlling the operation of waterjet devices (pressure washers)", filed on April 24, 2015, provides a waterjet device that includes a motor with a valve sensitive to control signals, a pump connected to the motor that is driven by a pressurized fluid, a pressure sensor that can be connected to the motor and measures the pressure exerted by the pump on the fluid, and a control unit. This control unit is connected to the pressure sensor and the motor valve and controls the input and output signals between them. The control unit is also connected to a distributor device that determines the timing of the operation. Using this system, the pump pressure is adjusted between a normal state and an inactive state based on a specific timing. These adjustments are made by the control unit and, by receiving user inputs, the operation of the motor and the washing system is optimized.

[0014] Patent No. CN105857264B entitled "Apparatus and Method for Almost Intelligent Automatic Car Washing", filed on June 12, 2016, discloses an automatic car washing system that includes a traction guide member. This member is installed around the vehicle's path, and at the right end of the path, two columns and three cross beams are fixedly connected to each other. Between these beams, two spray pipes, a jet pipe, and a brush are installed, which are located on the middle cross beam. The patent claims that this system minimizes energy and water consumption due to its simple design, thereby reducing the failure rate of the device, maintenance costs, and ultimately, improving the performance of the device.

[0015] Patent document No. US9453295B2 entitled "Washing machine with microbubble generating device", filed on January 30, 2014, introduces a washing machine with a microbubble generating device. This microbubble generating device is located inside the main body of the washing machine and is capable of generating microbubbles and injecting them into the washing section. It is claimed in this invention that this microbubble generating device includes various parts for circulating and compressing water entering from the washing section, supplying air, and a mixer for mixing air and water. Then, this air and water mixture is discharged through a series of slots in the form of microbubbles, ultimately improving the washing efficiency and cleaning performance of the washing machine.

[0016] Patent No. JP2021115444A entitled "Washing machine with ultrasonic washing", registered on January 22, 2020, provides a new method for washing clothes in which ultrasonic waves are used instead of detergents. This method reduces water consumption, prevents fading of clothes, and reduces damage to fabric fibers. Also, this invention describes a system for increasing washing efficiency, which includes injecting air into hot water inside the water source and creating fine bubbles to improve the cleaning process.

[0017] Patent No. US9790808B2 entitled "Mobile in-flight aircraft engine washing system and water recycling", filed on April 4, 2005, refers to a mobile washing system capable of washing a jet engine while it is in operation. The system consists of two main parts, including a part for pumping and transferring the cleaning solution and a mobile part for collecting the used cleaning solution. The collecting part, which is installed and mounted under the aircraft engine, collects the cleaning solution and directs it through a duct to the engine outlet nozzle.

[0018] Patent No. US9174362B2 entitled "Solvent-free multi-purpose spraying system and method", filed on July 12, 2007, refers to a system that uses methods and devices capable of spraying multi-purpose materials without the need for the use of solvents. This system includes various components, including: a set of precision and similar pumps (distributor pumps) for pumping and transferring various compositions and components of the multi-purpose fluid under pressure, a heating system for heating said fluid, and a mixing device that includes various components such as impact mixers, backpressure regulating elements and static mixers. This system is capable of operating at temperatures between 15 and 100 degrees Celsius and pressures between 1700 and 70,000 kPa and spraying materials with different viscosities, temperatures, pressures and ratios simultaneously.

[0019] Patent No. TW 1632001 B entitled “Cleaning device for atomizing and spraying fluid in a two-phase flow”, filed on March 29, 2016, provides an innovative spraying device that uses simultaneous air and fluid flow to clean surfaces. In this device, which includes a fluid delivery pipeline with a fluid guide outlet in the nozzle body and a gas outlet screen with a vertical guide outlet, the fluid is atomized into very fine and uniform droplets by the collision of the fast air and fluid flows in this chamber. These droplets are sprayed at high speed and in a controlled manner towards the desired surface (such as the surface of a chip). The main advantage of this method is the creation of very fine droplets with minimal energy. This prevents damage to the surface structure and, as a result, improved cleaning quality and reduced costs.

[0020] Patent No. US9878341B2 entitled "Water Spray System with Wireless Transmitter Mechanism", filed on March 24, 2014, provides a water spray system. The system includes a motor, a pump connected to the motor, a pump inlet connected to a water source, and a pump outlet for supplying water at a higher pressure. A nozzle is connected to the pump outlet, which has a flow limiting valve and a trigger for controlling the flow. Also, a wireless transmitter is embedded in the system that sends a signal to release the flow limiting valve. A wireless receiver receives the transmitted signal and is then connected to a control system. After receiving the signal, this control system starts the motor and, as a result, the pump starts working and water comes out of the nozzle with an appropriate pressure.

[0021] Patent No. CN218232840U entitled "Atomizing device, sprayer and clothing care equipment", filed on August 18, 2022, introduces an innovative device for atomizing and spraying cleaning agents. This device is composed of a main body, an atomization core and a cover. The main body has an inlet, and the atomization core has an opening through which the atomized laundry agent is sprayed into very fine particles. At the inlet, there is a detachable cap that covers the main body in addition to the atomization core. This cap is used to hold the atomization core installed in a cavity. With this device, the cleaning agent is sprayed evenly and precisely onto the desired surface, and the washing process is effectively performed.

[0022] Patent No. CN105592916B entitled "Liquid solution containing nanobubbles", filed on October 3, 2014, provides a nanobubble generator. This generator includes a liquid solution containing nanobubbles with a high concentration, an inlet for receiving the liquid solution, an assembly including at least two consecutive cavitation zones and shear plates for processing the solution, and finally, an outlet for discharging the liquid solution containing nanobubbles. In this process, the liquid solution passes through the cavitation zones and shear plates, and as a result, very small bubbles (nanobubbles) are formed inside it.

[0023] Patent No. US9453295B2 entitled "Washing Machine Including Microbubble Generation Device", filed on January 30, 2014, provides a laundry washing machine and a device for generating microbubbles and conveying them to the washing section. The microbubble generation device includes a water circulation section connected to the washing unit designed to increase the water pressure, an air supply, a mixer connected to the water circulation unit and the air supply, for mixing the wash water and air, and a gap for passing the water and air mixture to generate microbubbles. It is claimed that the invention improves the washing process and increases the effectiveness of removing contaminants from clothes, because by reducing the size or diameter of the microbubbles, the washing effectiveness is increased.

[0024] Patent No. US20170362956A1 entitled "Mobile Aircraft Engine Washing System and In-Flight Water Recycling", filed on January 30, 2014, provides a system for in-flight aircraft engine washing and water recycling. The system includes at least one spray device for spraying a cleaning solution comprising at least water into a running engine and a drain pan for collecting the cleaning solution from the exhaust end or under the engine.

[0025] Patent No. JP2021115444A entitled "Ultrasonic washing machine", filed on January 30, 2014, provides a type of washing based on the use of ultrasonic waves (vibrational energy) that overcomes the problems of conventional washing machines that use detergents to break down dirt and increases cleaning efficiency by knocking clothes against the equipment. It is also claimed that the device saves water and reduces fading of clothes because this washing method does not use detergents.

[0026] Patent No. CN2268043Y entitled "Multi-dimensional Water Flow Washing Machine", filed on February 28, 1997, provides a multi-dimensional water flow washing machine comprising a housing, an inner and outer drum body, and a moving gear. The lower inner part of the inner drum body is provided with an impeller (water impeller), and the side wall of the inner drum body is provided with a plurality of longitudinal water channels. The upper end of each of these channels is connected to a nozzle or filter plate by an interface. The user can determine the installation ratio of the filter plates and nozzles according to the lint level of the laundry. This invention claims to have the ability to shorten the time and increase the washing efficiency.

[0027] Patent No. US10555517B2 entitled “Sprayer, Compact Spray Module of the Device, and Spraying and Control System of a Number of Such Modules”, filed on June 24, 2016, introduces an innovative system for spraying liquid onto plants. The system consists of a tubular nozzle, a rotating atomizing device, a fan for creating a strong air flow around the atomizing device, a moving system and a mechanism for conveying fluid to the atomizing device capable of breaking up the liquid into droplets. This air flow helps the fine droplets to be dispersed uniformly and precisely onto the plants. A drive system is also provided for rotating the rotor and a transmission system for delivering the liquid to the nozzle. In addition, the invention refers to a compact spray module that includes several similar spray units and can be used for wider applications. The nozzle includes a chamber surrounded by an air flow. Inside this chamber, there is a rotating atomization device.Rotation of this part causes the liquid droplets to be ejected into the air stream, preferably perpendicular to the longitudinal axis of the nozzle. The invention also includes a compact spray module comprising such a device and a spray and control system comprising a number of such modules.

[0028] Patent No. US20190046939A1 entitled “Nanosilica dispersion with amphiphilic properties and dual particle structure and method for producing the same”, filed on March 30, 2018, introduces a new type of nanosilica dispersion. This dispersion has a unique feature: it is compatible with both water (hydrophilic) and oil (lipophilic) and has a structure consisting of dual particles. The method for producing this dispersion consists of two main steps. In the first step, a silane coupling agent containing a lipophilic group is added to a solution containing nanosilica particles. Then, in the second step, a silane coupling agent containing a hydrophilic group is added to another solution of nanosilica particles. Finally, these two solutions are combined and after adding 3-aminopropyltriethoxysilane and stirring, a nanosilica dispersion with amphiphilic properties and a dual particle structure is produced. This production method is simple and low-cost, and the final product has very fine particles with a size of less than 100 nm.

[0029] Patent No. US9872832B2 entitled "Nanoemulsions with reversible continuous and dispersed phases", filed on October 23, 2015, claims a method for preparing a nanoemulsion with reversible continuous and dispersed phases. The method comprises an aqueous phase and an oil phase. The weight ratio of the aqueous phase to the oil phase is 1:40 to 100:1. The aqueous phase comprises an aqueous solution and a water-soluble organic nanostructure stabilizer, and the oil phase comprises an oil solution, an organic gel thickener, and a hydrophilic surfactant with a hydrophilic-lipophilic balance value greater than 8.0.

[0030] Patent No. US9872832B2 entitled "Fluorinated Olefins as Working Fluids and Methods of Using Them", filed on December 17, 2014, provides a fluorinated olefin composition and a heat transfer device. The system includes a fire extinguishing composition capable of converting thermal energy into mechanical energy using a Rankine cycle. The device utilizes a heat transfer mechanism in which at least one fluorinated olefin compound is used as the heat transfer fluid. The mechanism includes various components for managing the heat transfer fluid. These components may include pumps, valves, fluid containment systems, pressure control systems, condensers, heat exchangers, heat sources, heat sinks, refrigeration systems, active temperature control systems, and passive temperature control systems. The device utilizes a heat transfer mechanism that uses at least one fluorinated olefin compound as a heat transfer fluid. The mechanism includes various components for managing the heat transfer fluid.These components may include pumps, valves, fluid containment systems, pressure control systems, condensers, heat exchangers, heat sources, heat sinks, refrigeration systems, active and passive temperature control systems.

[0031] Patent No. JP5530936B2 entitled "Ultra-sensitive magnetic sensor using giant Faraday rotation", filed on January 16, 2009, and Patent No. US9494809B2 entitled "Ultra-sensitive magnetic sensor with magneto-optical active material with high Verdt constant", filed on August 28, 2013, introduce highly accurate electromagnetic field sensors. These sensors are capable of accurately measuring magnetic fields using magneto-optical active materials. These materials can be organic (such as polymers) or inorganic. The operating principle of these sensors is based on the Faraday rotation phenomenon. In this method, an interferometer is used to measure the rotation of the polarization plane of light passing through the magneto-optical active material. The polymer material used in these sensors is preferably in the form of a thin film. Furthermore, in these inventions, the sensor head is designed for use with optical fiber or mirrors. A Sagnac interferometer, in particular, provides a fiber for precise measurement of the rotation of the polarization planes of light.This Sagnac interferometer, whether based on fiber optics or mirrors, uses a passive phase bias to improve the sensitivity of magnetic field measurements.

[0032] Patent No. US5345329A entitled "Polarization-Independent Optical Isolator", filed on January 16, 2009, provides an optical isolator. This isolator comprises two birefringent plates. The first plate splits the incoming light into two optical components with perpendicular polarization. These two light components then pass through separate optical paths. Next, a second birefringent plate recombines these two light components. Between these two birefringent plates, two Faraday rotators are placed. Each of these rotators has a Faraday rotation angle of about 45 degrees. Also, a polarizer is placed between the two Faraday rotators, which determines the direction of the polarized light. For the correct operation of this isolator, an external magnetic field device is used. This device applies a magnetic field to two separate optical paths in the two Faraday rotators. This creates opposite magnetic orientations in areas adjacent to the optical paths in each of the spinners.

[0033] Patent No. US10675819B2 entitled “Magnetic Field Alignment of Emulsions to Produce Porous Parts”, filed on December 23, 2016, provides novel methods for producing porous parts using magnetic fields. These methods are based on producing porous parts on an emulsion and aligning emulsion droplets under the influence of a magnetic field. In this method, first, by applying a magnetic field, the emulsion droplets are arranged in a specific direction. Then, to create a porous structure, the emulsion droplets, the surrounding environment, or both are removed from the system. Materials such as polyvinyl alcohol can be used to stabilize the emulsion droplets or connect the components of the porous part. Also, water-soluble liquid alcohols can be used to stabilize the suspension of electrically conductive materials in one of the emulsion phases.

[0034] Patent No. US7942975B2 entitled "Method for Cleaning a Sprayed Ceramic Part", filed on January 23, 2009, provides an innovative method for cleaning sprayed ceramic members. The method is designed to effectively prevent water from absorbing and adhering to the ceramic surface. The invention includes a cleaning method, an implementation program, a storage environment for the program, and the sprayed ceramic part itself. The method is particularly useful for cleaning components such as electrodes, focal rings, and electrostatic clamps used in plasma processing chambers. The method can also be used to clean transfer arms used in conveyors to transfer substrates and other parts to the processing apparatus. Summary of the invention:

[0035] The method of washing surfaces with fluids is carried out in various ways and using a variety of devices and equipment. This type of equipment is used in various industries, and the most common fluid used in the washing process is water. Despite the wide range of equipment and tools available in this field, the washing model is often carried out using a significant flow of water or fluid with a specific temperature range and normal ambient pressure; or instead of using a flow of water or liquid fluid, other methods are used, such as using water vapor or pressurized fluid vapor at high temperatures. Both of the aforementioned methods, despite their differences, have common limitations and challenges. These limitations include long washing times, high water consumption, long drying times, high costs of removing residual water on surfaces after washing, as well as damage caused by prolonged contact of various surfaces such as stone, ceramic, metal and alloy with water or other fluids, such as corrosion and oxidation.

[0036] In this invention, an innovative method is provided that, using a complex multifunctional system and various techniques, engineers the intermolecular interactions of water or other usable fluids. These fluids have cleaning and disinfecting effects similar to those of water or other fluids used on various surfaces. This system accelerates the washing process, reduces water consumption, shortens drying time, and minimizes damage to surfaces by changing the boiling point of the fluids. Technical problem:

[0037] As previously mentioned, the process of washing surfaces with water and generally with a specific fluid flow is a process that is carried out in various ways. In a general approach that is used in several washing systems and equipment such as dishwashers and washing machines, to carry out the washing process on dishes and tools that have various compositions of glass, silica and stone, as well as on various types of clothing and wearable items with various compositions including wool, silk, leather and linen, a significant amount of water or any other suitable and usable fluid flow, with a specific temperature range that is generally set in the range of 20 to 50 degrees Celsius, in the range of normal room pressure and together with the combination of an appropriate set of surfactants that have the ability to clean contaminants such as fat particles from surfaces, for a significant period of time that is generally in the range of 30 to 150 minutes, is carried out. It is worth noting that this approach is carried out in a closed and isolated space.

[0038] Another cleaning system that performs a similar function to a dishwasher and washing machine, but operates at higher temperatures and pressures, is the autoclave. In this system, instead of using water or a fluid in liquid form, pressurized water vapor or fluid vapor is used, at a temperature range above 100°C (121-134°C) and a pressure range of 1.2 to 2.1 bar, to sterilize surfaces made of glass, silica, stone, and some metals. The second general method, which is used in a wide range of industries and systems such as car washes and building cleaning, is used to wash and clean surfaces made of stone, ceramics, bricks, plastics, alloys, and metals on various types of equipment, tools, industrial parts, building materials, and manufacturing tools, under pressure and is known as pressure washing.This method, which is widely used in pressure washing systems such as waterjet machines, is used in various industries to clean various industrial parts and equipment, with the aim of washing large industrial tools and parts in open spaces that cannot be placed and installed in a confined and isolated space.

[0039] Despite the differences and capabilities of each of these two methods, both face similar problems and limitations. In this invention, an attempt has been made to overcome these problems and limitations by utilizing creative and innovative methods. Among these problems and limitations, the following can be mentioned: 1.

[0040] The length of the washing process, which results in the consumption of a significant volume of water or any other fluid used in the process and, as a result, the production of a significant amount of wastewater. 2.

[0041] The process of drying and completely removing the water or fluid used from surfaces is long and time-consuming, requiring significant expense and time to completely remove the remaining water or fluid from the surface after the washing process is complete. 3.

[0042] Significant destructive, erosive and oxidizing effects of water molecules and many other fluids used in the washing process on surfaces made of metal and various alloys, especially under conditions where water molecules and the flow of water or fluid are in close proximity and contact with the relevant surface for a long time.

[0043] In this invention, by utilizing an innovative and sophisticated multifunctional system and various techniques, the intermolecular interactions of water molecules and other fluids usable in the washing process are manipulated and engineered. This approach leads to improved cleaning and sanitizing effects of water molecules and other fluids on various surfaces. Also, by purposefully manipulating the boiling point of the water or fluid flow used, the process of removing the water or fluid flow from the surface is facilitated and accelerated. This effectively minimizes the time required for the drying process as well as the destructive, erosive and oxidizing effects of the water flow or any other usable fluid flow on the surface. Solution to the problem:

[0044] As mentioned, a variety of systems, equipment, and tools have been designed and manufactured with different mechanisms for washing and cleaning various surfaces. With the increasing advancement of technology in various fields and the emergence of new industrial devices and components, especially advanced electronic components such as microprocessors, superconductors, supercapacitors, special alloys with specific functional properties, special polymers, biological systems (systems biology), cell-based systems and synthetic biology, biomaterials and biosensors, systems based on molecular motors and machines, systems based on macromolecules, quantum computers, coatings and sensitive surfaces of advanced materials and other integrated smart systems based on the existence and operation of a set of electrical, magnetic and electronic systems in an environment of special alloys with high functional accuracy and sensitivity, on the one hand, and the high importance of applying monitoring methods to control the number of foreign particles in the air surrounding the space where the components and systems are located or in the functional environment of the installation, on the other hand, in order to check the level of cleanliness and, in general, to eliminate hazardous factors that can cause disturbances.Functional and structural damage, resulting in a significant reduction in the efficiency and maximum power and production capacity expected from these parts, machines and devices, has increased dramatically. As a result, it is of great importance to create an efficient washing process with the highest washing ability and the lowest level of damage to the structure and performance of sensitive systems.

[0045] In this invention, a method for implementing and fabricating an advanced hybrid multi-purpose washing system is considered using several effective mechanisms for engineering the fluid molecules used in the washing process, the most dominant of which is water, which will be described in detail below.

[0046] In fact, the main objective of this invention is to achieve three independent objectives: 1.

[0047] Activation of the molecules constituting the fluid used to increase the cleaning ability, removal and washing of the molecules constituting the fluid used in the process of washing various surfaces of various devices and tools, as well as increasing the fire extinguishing ability of the alleged fluid in dealing with unexpected incidents, especially fires caused by various origins. 2.

[0048] Accelerate the removal of the claimed used fluid from various surfaces by utilizing engineering and manipulation of intermolecular interactions, in order to reduce the destructive and damaging effects caused by prolonged residence of the washing fluid on the surface. 3.

[0049] Reducing the time required for the washing process as well as reducing the amount of fluid used in the washing process and accomplishing other claimed applications such as firefighting and dealing with unexpected conditions.

[0050] The claimed objectives are focused on molecular engineering, in particular the manipulation of the intermolecular interactions of the molecules constituting the fluid used in the washing process, based on five different techniques, which include the following: 1. Mixing the liquid fluid with compressed air and condensing, suspending, microscopically structuring and nanofabricating the secondary mixture produced using a set of nozzles and spray systems such as micro-vapor sprays, micro-water sprays and nano-vapor sprays. 2. Excitation of the fluid molecules used in the washing process with high-frequency ultrasound waves. 3. Excitation of the fluid molecules used in the washing process with infrared electromagnetic waves. 4. Manipulation of the intermolecular interactions of the fluid molecules used in the washing process, with the help of carrier particles consisting of perfluorocarbon compounds and ultrafine silicon dioxide powder. 5. Excitation and neutralization of fluid molecules used in the washing process, by applying a strong magnetic field in the range of 0.3 to 2.5 Tesla (0.3-2.5 Tesla).

[0051] The most important technique used in this system and advanced multi-purpose washing method is the technique of mixing liquid fluid with compressed air and condensation, suspension, microscopic structuring and nano-forming of the secondary mixture produced with the help of a set of nozzles and spray systems such as micro-steam sprays, micro-sprinklers and nano-steam sprays. The aim of this technique is to increase the efficiency and effectiveness of the washing process, cleaning and removing contaminants and interfering particles, as well as reducing the amount of fluid consumed in the washing process and other alleged intervention and countermeasure processes such as fire extinguishing.

[0052] The next technique focuses on the excitation of the molecules of the fluid used in the washing with high-frequency ultrasound waves. This method uses ultrasound waves with a frequency range of 500 kHz to 2.5 MHz. The main goal is to manipulate and change the intermolecular interactions through energy transfer and the destruction of hydrogen bonds between water molecules and other fluids used in the washing. This is done in order to excite the molecules and thus increase their efficiency and effectiveness in the cleaning process, targeting and combating various agents, including fire extinguishing. In addition, this technique leads to a decrease in the boiling point, acceleration of the removal of the fluid after the washing is completed and the generation of micro-vapors from the fluid.

[0053] The next technique is based on the excitation of the fluid molecules used in washing with infrared (IR) electromagnetic waves. In this method, IR waves are used to excite the rotating surfaces of the fluid molecules. This excitation leads to the weakening and breaking of hydrogen bonds and other intermolecular interactions between the fluid molecules. The purpose of this method is similar to the technique of excitation of fluid molecules using high-frequency ultrasound waves and seeks to increase the efficiency and effectiveness of the washing process.

[0054] The fourth technique is a clever way to manipulate the intermolecular interactions of the fluids used in washing. In this method, carrier particles composed of perfluorocarbon compounds are used. These particles, by increasing their lipophilicity, induce dipole-induced dipole and van der Waals or dipole-induced dipole interactions. As a result, the intermolecular ion-dipole, dipole-dipole and hydrogen bonding interactions between the molecules of the fluid used in washing are weakened. This leads to a significant reduction in the boiling point of various polar fluids, especially water as the main fluid used in washing in this claimed invention. This procedure leads to a significant reduction in washing time, drying time of various surfaces after washing, as well as a significant reduction in the destructive effects of various polar fluids, due to the effective weakening of hydrogen bonds and other alleged polar interactions such as ion-dipole and dipole-dipole.As a result, using this technique, this system and washing method can be used to apply the washing process to various sensitive industrial and laboratory equipment and instruments, such as electronic components and boards, complex industrial electronic machines and robots, computers, smart electronic devices, complex electrical and telecommunications systems, medical equipment, cellular-molecular laboratory systems and equipment, biological systems and equipment, complex sensitive alloys, and various types of biomaterials, easily and with minimal concern about the damage and destructive effects caused by the use of various fluids used in washing, which generally have catalytic properties in inducing various destructive mechanisms, whether chemical such as oxidation-reduction, solysis, hydrolysis, as well as impedance disruption and applying potential differences and severe fluctuations in induction and electric current, or physical such as erosion and abrasion effects.

[0055] The final technique is based on the excitation and neutralization of the fluid molecules used in washing by applying a strong magnetic field in the range of 0.3 to 0.5 Tesla. In this method, by utilizing microscopic coils and the inverse Faraday effect, strong magnetic fields are created in the path of the fluid transfer pipes of this system and the advanced multi-purpose washing machine. This leads to the excitation of the fluid molecules and, as a result, the washing efficiency and effectiveness and cleaning power of the fluid are increased and its boiling point is reduced. The reduction in the boiling point helps to accelerate the process of removing the fluid residue from the washed surface after the washing process is completed.

[0056] As can be seen in the images provided, in one embodiment of the claimed advanced multi-purpose washing machine and system, various components can be viewed and examined from different angles. In this embodiment, the system is claimed to be designed in the form of a box and a cube-like backpack. A set of fluid and air mixers, condensers, compressors, sprays and atomizers, along with a set of electronic components including a high-frequency ultrasonic transducer, an infrared transducer (IR transducer) with polarized radiation waves, a set of magnetic suspension coils and a set of magnetoplasmonic crystals, are visible in different positions.

[0057] More specifically, the claimed advanced multi-purpose washing machine and system includes a multilayer support body (3), a protective cross-section of the body (1), upper and lower waterproof covers (3), a set of high-pressure fluid transfer hoses (4), and an outer body (5), the inner body (8) of which serves as a high-pressure fluid outlet. Also, in the multilayer support body, an inlet connected to the body (6) is installed to the fluid holder (14) to allow fluid flow from external sources to enter the system and washing machine. As mentioned, in the inner body (9) of the claimed advanced multi-purpose washing machine and system, a set of various hydromechanical equipment and electronic components with diverse applications are installed. In the illustrated embodiment, a set of 4 fluid storage tanks (14), together with tank inlets (16), are first visible in the upper portion (23) of the claimed fluid storage tanks.At the bottom of these tanks, a containment space (22) and a fluid flow outlet area (21) are installed adjacent to a complex section that directs, transports, and sprays the fluid flow (18) from the fluid storage tanks.

[0058] As the name suggests, the part that directs, transports and sprays the fluid flow has the ability to strongly mix and transport and direct a controlled amount of fluid flow from the claimed holding tanks and sprays it into the fluid transfer system and transfers it to various parts inside the washing machine. It can also be seen that a set of four claimed fluid holding tanks are located in a tank holding chamber (15). Next, a set of a compressed air pump (13) and two secondary condensers (10) can be seen, which the fluid flow encounters after exiting the tanks and directing and transporting the output flow by the flow directing and transfer system. In this system, first the process of collision and mixing of the fluid with compressed air is carried out, followed by the condensation process to condense the compressed air molecules and interact with the desired fluid molecules, in order to create a stable mixture of air and fluid for transfer into the washing machine.

[0059] Next, a compressor (12) is visible which compresses the fluid stream mixed with compressed air. This stream then enters the fluid conveying channel section which is the path for conveying the fluid mixed with compressed air within a complex set of pipes (11). The fluid is mixed, compressed and agitated in the conveying pipe system (11) and passes through a series of nano-micro vapor sprays and nozzles (45). The fluid stream and compressed air mixture is separated into droplets and converted into a mist and is finally sprayed towards the target, part or surface by a series of high pressure fluid delivery hoses (4) and the internal area (8) of the high pressure fluid flow outlet.Inside this complex channeled pipe system that transports, mixes, condenses and excites the fluid flow (11), along with a set of sprays and nozzles, a set of various electronic components including a set of high-frequency ultrasonic transducers (33) alongside a set of infrared transducers (IR Transducer) with polarized radiation waves (39) and magnetic coils (37) of the magnetic suspension system, are placed next to each other and on a set of protective discs (36).

[0060] The operation of the present embodiment of the claimed invention will now be described in detail. As claimed, the main purpose of the claimed invention is to improve the cleaning and purifying effects of the fluid molecules used in the washing process on various surfaces, to facilitate and accelerate the removal of the residual fluid on the surface and to minimize the time required for the drying process and, as a result, to minimize the destructive, erosive and oxidative effects of the fluid used on the surfaces of various parts, equipment and tools in the washing process. In a set of four fluid storage tanks, it is possible to place various fluids suitable for the washing process.

[0061] Given that the most common and widely used fluid is water, at least two of the four claimed fluid storage tanks are specifically designed to store water. As discussed in the previous section, one of the five claimed techniques focuses on molecular engineering and, in particular, manipulating the intermolecular interactions of the molecules that make up the fluid used in the washing process. The intermolecular interactions of the fluid molecules are also manipulated with the aid of carrier particles consisting of perfluorocarbon compounds and ultrafine silicon dioxide powder.

[0062] In this regard, in the space of claim (22) at least one of the four fluid storage tanks, a dense bed of very fine silicon dioxide powder is used up to two-thirds of the volumetric capacity of this space. Also, in at least one of the three remaining fluid flow holding tanks, a certain amount of suitable perfluorocarbon compounds is used, in particular perfluoro(3-pentanone), perfluoro(2-methyl-3-pentanone), perfluoro(2,4-dimethyl-3-pentanone), perfluoro(methylcyclohexanone), perfluoro(dimethylcyclohexanone) and perfluoro(2,4-dimethylcyclopentanone).

[0063] The reason for using perfluorocarbon compounds and ultrafine silicon dioxide powder in the vicinity of the fluid is to increase the hydrophobicity and reduce the surface tension and hydrophilicity of the fluid used in the washing process. This increases the fluid flow acceptance compared to compressed air and, as a result, facilitates the process of combining it with the compressed air provided by the compressed air pump and secondary condensers, which in turn leads to increased cleaning ability, washing quality and removal capacity of the fluid mixed with air and reduces the amount of fluid consumed in the washing process due to the aerosol of the gas in the liquid; also, due to the reduced hydrophilicity and surface tension created compared to the initial fluid flow, it facilitates the drying process and removal of the remaining fluid after the washing process is completed. The part that directs, transfers and sprays the fluid flow (18) and was previously discussed, is capable of receiving the output from the fluid storage tanks through the inlet channel (56) embedded therein.

[0064] This part is connected to the fluid flow outlet area (21). This connection is made from the upper part (58) and through the inlet channel. In the lower part (59) and the side body (60) of this part, a set of motors are installed. These motors are able to create vibrations and tractions in the fluid flow. This happens when the fluid flow enters this part through the inlet channel. The purpose of this process is to uniformly mix the fluid flow used with the hydrophobic agents. These hydrophobic agents are used in the area of ​​the specified reservoirs.

[0065] Then, the fluid flow mixed with the claimed hydrophobic agents enters the flow guide and transfer nozzle (65) through the spring inlet of the flow guide and transfer nozzle (63). In this path, the end piezoelectric element (62) performs the vibration generation process and the fluid flow pump is responsible for directing, transferring and creating a laminar flow of the fluid along the nozzle. Finally, the created laminar flow is transferred to the flow transfer system through the outlet of the flow guide and transfer nozzle (64).

[0066] After the fluid mixed with the hydrophobic agents exits the flow guide nozzle, the transfer and spray portion of the fluid flow is transferred to the flow inlet (20) of the first secondary condenser via the flow transfer system. After the fluid flow enters the first secondary condenser (10), the total fluid flow is divided into a set of several separate flows that are arranged in a set of tubular channeled paths (24). While passing through these arranged tubular paths, the compressed air flow pumped by the compressed air pump (13) is continuously adjacent to the compressed air flow in a set of hyperbolic paths (25) arranged adjacent to the claimed tubular channeled paths.

[0067] After being in contact with the compressed air entering the secondary condenser, the fluid is transferred to the flow transfer system through the channeled paths of the claimed pipes by the flow outlet (20) mounted on the multilayer ring at the end of the body (26). To ensure the flow of the fluid after exiting the flow and mixing the compressed air with the fluid flow, a set of at least two secondary condensers is used, and the fluid flow after exiting the flow outlet (20) mounted on the multilayer ring at the end of the body of the first secondary condenser (26) enters the second secondary condenser through the flow inlet (20).

[0068] It should be noted that this set of secondary condensers is connected to the inner part of the body (9) of the washing machine through the support legs (19). After the flow of fluid mixed with compressed air exits from the flow outlet of the second secondary condenser, this flow is directed through the continuation of the claimed flow transfer system to the flow inlet of the compressor shaft (30). In the lower part of the compressor (31), the process of distillation of the flow of fluid mixed with compressed air takes place. The purpose of this process is to reduce the particle size and engineer the dimensions of the secondary vapors. Inside this annular liquid compressor (12), a set of air end edges (29) is installed. These edges allow for optimal mixing and compression of the flow of fluid mixed with compressed air.

[0069] It should be noted that the compression process is carried out with the help of the applied force and the energy supplied by the electromagnetic actuator (28). To optimize the compression quality, improve the compression process and minimize the amount of fluid flow consumed in the washing process, at least one inlet valve and one outlet valve for the compressed air flow (27) are installed around the claimed annular fluid compressor and in the vicinity of the compressor support legs (17). In this way, the process of combining and compressing the fluid flow mixed with the compressed air is carried out in the interior of the part. Also, in the upper part of the compressor (32) where the ring combining the incoming compressed air with the fluid flow mixed with the compressed air is located, the compression process is completed. The compressed flow produced is transmitted through the compressor outlet shaft (30) to a complex system of channeled pipes. This system transmits, condenses, and excites the claimed fluid flow (11).

[0070] After the fluid stream mixed and condensed with compressed air enters through the inlet section (44) into the complex system of channeled pipes that convey, mix, condense and excite the claimed fluid stream, the resulting compressed air-fluid stream is subjected to a series of high frequency ultrasonic waves, high amplitude infrared waves and high amplitude magnetic radiation waves. This process is carried out after the compressed air-fluid stream passes through the embedded spiral (41) and columnar (42) paths.

[0071] It should be noted that the claimed high-frequency ultrasonic waves, strong polar infrared waves and magnetic waves are generated by a set of high-frequency ultrasonic transducers (33), infrared transducers (39) and magnetic levitation coils (36), respectively. The mixed compressed air-fluid flow at each point of this complex system of channeled pipes that conveys, mixes, condenses and excites the claimed fluid flow is, after being excited by the claimed ultrasonic, infrared and magnetic waves, transformed into fluid droplets in the micro-size range by a claimed set of micro-nano vapor generation and spraying components and systems (nano-micro vapor sprayer) (45). Then, these fluid droplets are sprayed onto the claimed surfaces by a flow transfer hose to perform the cleaning process.

[0072] It should be noted that these nano-micro vapor spray systems have a large cross-sectional area (52) surrounding a smaller cross-sectional flow inlet (51). After the fluid flow mixed with compressed air has passed through each section of the complex system of channeled pipes that conveys, mixes, condenses and excites the claimed fluid flow, the fluid flow is located in the outer section of the nano-micro vapor generation and spray system (nano-micro vapor sprayer) and has sufficient time to enter the inner section (46) of the claimed system, through the smaller cross-sectional flow inlet (51). Then, as the flow enters the inner section, a dual turbulence and condensation process is carried out to create a flow with the appropriate rheology to produce liquid aerosols in the gas and fluid droplets in the form of nano-micro vapor. Also, two flow inlets (50) for compressed air and fluid flow are installed independently, which allows for adjusting the volume / mass ratio of compressed air and fluid flow in this section.Finally, after the double turbulence and condensation process in this region, the flow first enters the inner hemisphere region (49) from the inner outlet section (55). Due to the structure of this region, the fluid flow, after being turbulent and condensed, is sprayed into the embedded columnar paths (42) in the form of droplets in the micro to nanometer size range through the final spray outlet (54) embedded in the outer hemisphere region (48). Advantages of the invention:

[0073] As mentioned, there are various methods for cleaning different surfaces. Despite the diversity of these methods, they can generally be divided into two categories. The first category is those that require a large amount of water or liquid at a certain temperature (between 20 and 50 ° C) and normal pressure for cleaning. In these methods, various detergents and boosters such as surfactants are used to remove contaminants.

[0074] The second method is a different method that, instead of using water or ordinary liquids, uses water vapor or fluid vapor at very high temperatures (between 121 and 134 degrees Celsius) and high pressures (1.2 to 2.1 bar). This method, known as pressure washing, is very suitable for performing deeper cleaning such as sterilization. Waterjet machines are an example of a machine that uses this method. This method is especially useful for cleaning large and industrial parts that cannot be transported to smaller locations. Both methods have their own advantages and limitations. However, the new invention that has been introduced has been able to overcome many of these limitations. We will now examine these problems and the solutions provided in this invention in more detail. Among the alleged problems and limitations, the following can be mentioned: 1.

[0075] The length of the washing process, which causes a significant amount of consumption and waste of water or any other fluid that could be used in the washing process. 2.

[0076] The lengthy drying process and removal of the water stream or residual fluid used in the washing process from the surfaces requires significant expense and time to remove the water stream or residual fluid from the surface after the washing process is complete. 3.

[0077] Significant destructive, erosive and oxidizing effects of water molecules and many other fluids that can be used in the washing process on various metal and alloy surfaces, especially under conditions where the water or fluid molecules are in proximity and contact with the relevant surface for a long time.

[0078] In this claimed invention, an innovative and complex multifunctional system is provided, using 5 different techniques, including the technique of mixing a liquid fluid stream with compressed air and distilling, suspending, microforming and nanoforming the secondary mixture produced with the help of a set of nozzles and spray systems such as micro-sprays, micro-sprays and nano-mist sprays, the technique of stimulating the fluid molecules used in the washing process with high-frequency ultrasonic waves, the technique of stimulating the fluid molecules used in the washing process with infrared electromagnetic waves, the technique of manipulating the intermolecular interactions of the fluid molecules used in the washing process, with the help of carrier particles consisting of perfluorocarbon compounds and ultra-fine silicon dioxide powder, and finally, the technique of stimulating and neutralizing the fluid molecules used in the washing process, with the help of applying a strong magnetic field in the range of 0.3 to 2.5 Tesla has been used to engineer the intermolecular interactions of water molecules and other fluids used in the washing process, which improves the cleaning and sanitizing effects of water molecules and other fluids used on various surfaces, and by changing and manipulating the boiling point of water or that fluid used, facilitates and accelerates the process of removing residual water or fluid used on the surface, which reduces and minimizes the time required to perform the drying process, as well as the destructive, erosive and oxidizing effects of water flow or fluid flow molecules.

[0079] It is also worth noting that the claimed invention, by using the technique of manipulating the intermolecular interactions of fluid molecules, with the help of carrier particles consisting of perfluorocarbon compounds and ultrafine silicon dioxide powder, facilitates the process of trapping oxygen gas and significantly reduces the effects of the oxidation activity of oxygen molecules present in the air. As a result, the claimed washing device and system, along with optimal efficiency in applying various washing processes and removing various contaminants, has optimal performance in its use in contrasting processes such as firefighting and fire extinguishing. Brief description of the images:

[0080] Figure 1: General view of the assembled device from various angles. The main components include the protective body (1), the back part of the body (2), the multilayer support body (3), the high-pressure fluid transfer hoses (4), the outer body (5), and the main inlet (6).

[0081] Figure 2: Shows all the components of the advanced multi-purpose fire fighting and washing device and how they are assembled. The main components include the inner body (9), a set of secondary condensers (10), and a complex network of channels for fluid transport, mixing, compression, and activation (11).

[0082] Figure 3: A complete view of the assembled advanced multi-purpose fire fighting and washing machine, showing all its components from different angles. The main components include the compressor (12), the compressed air pump (13), and the upper part of the fluid storage tank (14).

[0083] Figure 4: Shows how high-pressure fluid delivery hoses are connected to a complex network of channels that transport, mix, compress, and activate the fluid.

[0084] Figure 5: General view of the assembled device from various angles. The main components include the tank holding chamber (15) and the tank inlet (16).

[0085] Figure 6: General view of the assembled advanced multi-purpose fire fighting and washing machine, showing all its components from different angles. The main components include the compressor support legs (17).

[0086] Figure 7: Schematic view of the claimed fire extinguishing and washing device. The main components include the fluid guiding, conveying and spraying section (18) and the device support legs (19).

[0087] Figure 8: Isometric and dimetric views of all components of the advanced multi-purpose fire fighting and washing device and their assembly. The main components include the flow inlet and outlet of the secondary condenser assembly (20).

[0088] Figure 9: This figure shows the advanced fire extinguishing and flushing device from various angles, including isometric and dimetric views.

[0089] Figure 10: This figure, like Figure 9, shows the advanced fire extinguishing and washing device from different angles but from a different perspective.

[0090] Figure 11: This figure shows the section of the housing for mounting and accommodating a set of fluid storage tanks (22). The fluid flow outlet areas (21) and the upper part of the fluid storage tanks (23) are also indicated in this figure.

[0091] Figure 12: This figure shows a general view of the installation section of the tanks and the (claimed) improved multi-component fire-fighting and washing device from various angles.

[0092] Figure 13: This figure shows the installation section of the (claimed) improved multi-component fire extinguishing and washing device and tanks in more detail and from various angles, including isometric, dimetric and trimetric views.

[0093] Figure 14: This figure shows the secondary condenser section, which includes a set of tubular channeled paths (24), a set of hyperbolic paths (25), and a multilayer end shell ring (26).

[0094] Figure 15: This figure shows the secondary condenser section of the (claimed) advanced combined multi-component fire extinguishing and washing device.

[0095] Figure 16: This figure shows an isometric and dimetric view of the advanced (claimed) combined multi-component fire extinguishing and washing device and its secondary condenser section.

[0096] Figure 17: This figure shows the section of a liquid ring type air-liquid compressor system. The main components of this section include the compressed air inlet and outlet valve (27), the electromagnetic actuator (28), the air end flange assembly (29), the compressor shaft (30), and the compressor lower part (31).

[0097] Figure 18: This figure shows the upper part of the compressor (32) of the washing and fire extinguishing device.

[0098] Figure 19: This figure shows the air-liquid compressor section of the liquid ring type of the fire extinguishing and washing machine in more detail.

[0099] Figure 20: This figure shows a multiple schematic representation of the electronic part of the high-frequency ultrasonic transducer. The main components include the high-frequency ultrasonic transducer assembly (33), the high-frequency ultrasonic transducer upper part (34), and the high-frequency ultrasonic transducer lower part (35).

[0100] Figure 21: This figure shows the electronic part of the high-frequency ultrasonic transducer.

[0101] Figure 22: This figure shows an electronic component comprising two infrared transducer parts (IR transducer) and a set of magnetic levitation suspension coils (36).

[0102] Figure 23: This figure shows a combined electronic module consisting of two parts: an infrared transducer (IR transducer) and a set of magnetic levitation suspension coils.

[0103] Figure 24: This figure shows a section of a channeled tubular member for conveying fluid flow. The components shown include the spiral path (41), the columnar path (42), and the fluid flow outlet portion of the channeled tubular member (43).

[0104] Figure 25: This figure shows a channeled tubular member for conveying a fluid flow as part of a complex system of channeled tubes that conveys, mixes, compresses, and agitates a fluid flow. The components shown include the fluid flow inlet portion of the channeled tubular members (44).

[0105] Figure 26: This figure shows the complex system of channeled tubes that convey, mix, compress and excite the flow of the fluid used. The components indicated include a set of nano-micro mist nozzles (45) and the outer housing of the nano-micro mist nozzles (46).

[0106] Figure 27: This figure depicts all the components and complete assembly of the parts related to the complex system of channeled pipes that convey, mix, compress and excite the flow of the fluid used.

[0107] Figure 28: This figure shows the complex system of channeled pipes that conveys, mixes, compresses, and agitates the flow of fluid used, including all components and its complete assembly.

[0108] Figure 29: This figure shows the complete assembly of the complex system of channeled pipes that convey, mix, compress, and excite the flow of the fluid used, from various angles.

[0109] Figure 30: This figure shows all the components and the complete assembly of the parts related to the complex system of channeled pipes that transport, mix, compress and stimulate the flow of the fluid used, from various angles.

[0110] Figure 31: This figure shows the nano-micro vapor generation and atomization section. The main components of this section include the inner chamber of the atomizers (47), the outer hemisphere region (48), the inner hemisphere region (49), the flow inlets (50), the smaller cross-sectional flow inlet (51), the larger cross-sectional area (52), the mixed fluid and compressed air flow inlet (53), the final atomizer outlet (54), and the inner outlet (55).

[0111] Figure 32: This figure shows a schematic representation of several types of nano-micro vapor sprays. The main component shown in this figure is the inlet channel (56).

[0112] Figure 33: This figure depicts the nano-micro vapor generation and spraying section from different angles.

[0113] Figure 34: This figure shows a section that is responsible for transferring fluid from storage tanks. The main components of this section include a volumetric injector nozzle holder and a circular multiple area for guiding and transferring fluid (57), an upper section (58), a lower section (59), and a side body (60).

[0114] Figure 35: This figure depicts the fluid transfer section of the storage tanks from various angles.

[0115] Figure 36: This figure shows a part that is attached to the lower surface of the fluid storage tanks and is responsible for fluid transfer. The main component shown in this figure is the inner cubical holding part (61).

[0116] Figure 37: This figure shows the components of the system for conveying, directing, and spraying fluid flow from storage tanks. The main components include the end piezoelectric element (62), the spring-loaded inlet of the directing nozzle (63), the outlet of the directing nozzle (64), and the directing nozzle itself (65).

[0117] Figure 38: This figure shows a section that is responsible for directing and spraying an adjustable amount of fluid flow from the storage tanks.

[0118] Figure 39: This figure shows a set of magnetic coils and a housing for a set of magnetoplasmonic crystals. The main components include (66), a holder and an embedded area for the magnetoplasmonic crystals (67), and a set of magnetoplasmonic crystals (68).

[0119] Figure 40: This figure shows an electronic component capable of generating highly polarized infrared waves. The component includes a set of magnetic coils and a set of magnetoplasmonic crystals.

[0120] Figure 41: This figure shows a schematic representation of a set of manipulated strong polarized infrared wave generators and transducers.

[0121] Figure 42: This figure shows a schematic representation of a set of engineered strong polar infrared wave generators and transducers. The set includes an infrared transducer (IR transducer) in the central region and a set of magnetic levitation suspension coils in the lateral regions.

[0122] Figure 43: This figure shows the basic formulas of a set of perfluorocarbon compounds used in the containment area of ​​fluid storage tanks.

[0123] Figure 44: This figure shows the basic formulas of a series of perfluorocarbon derived compounds used to produce suitable perfluorocarbon compounds. Detailed description of the components:

[0124] Figure 1: This figure shows all the components and the complete assembled assembly of the advanced multi-component fire extinguishing and flushing system and apparatus. The apparatus includes a set of hydromechanical components including a set of secondary condensers, a fluid and air flow mixer, an air-fluid mixture compression system (air-fluid compressor), a set of fluid storage tanks, a fluid flow injection and transfer system, a compressed air pump, and a complex system of channeled pipes that, using a set of electronic components including a high-frequency ultrasonic transducer, an infrared transducer, and a set of magnetic suspension coils, convey, mix, compress, and excite the fluid from various horizontal angles in the up, down, side, and opposite directions along the three coordinate axes, in the form of hidden lines removed. The scale of the drawn figures is 1 to 25 actual scale and the dimensions shown are in centimeters.

[0125] Figure 2: This figure depicts all the components and the complete assembled assembly of the advanced multi-purpose fire-fighting and washing system and apparatus. The apparatus is composed of a set of hydromechanical components including secondary condensers, fluid-air mixer, air-fluid compression system (air-fluid compressor), fluid storage tanks, fluid injection and transfer system, compressed air pump and a complex network of channeled pipes. This network conveys, mixes, compresses and excites the fluid using electronic components such as high-frequency ultrasonic transducer, infrared transducer and magnetic suspension coils from various lateral angles and in isometric and trimetric shapes in three coordinate dimensions. In this figure, hidden lines have been omitted. The scale of the drawn figures is 1 to 20 and the dimensions are shown in centimeters.

[0126] Figure 3: This figure shows all the components and the complete assembled assembly of the claimed improved multi-purpose fire-fighting and washing system and apparatus. The apparatus is composed of a set of hydromechanical components including secondary condensers, fluid-air mixer, air-fluid compression system (air-fluid compressor), fluid storage tanks, fluid injection and transfer system, compressed air pump and a complex network of channeled pipes. This network conveys, mixes, compresses and excites the fluid using electronic components such as high-frequency ultrasonic transducer, infrared transducer and magnetic suspension coils, from different horizontal angles, in the up, down, side and opposite directions and along the three coordinate axes. Hidden lines are visible in this image. The scale of the drawn figures is 1 to 25 and the dimensions are shown in centimeters.

[0127] Figure 4: This figure shows all the components and the complete assembled assembly of the claimed improved multi-purpose fire-fighting and washing system and apparatus. The apparatus is composed of a set of hydromechanical components including secondary condensers, fluid-air mixer, air-fluid compression system (air-fluid compressor), fluid storage tanks, fluid injection and transfer system, compressed air pump and a complex network of channeled pipes. This network conveys, mixes, compresses and excites the fluid from different lateral and opposite angles and along three coordinate axes using electronic components such as high-frequency ultrasonic transducer, infrared transducer and magnetic suspension coils. In this image, hidden lines have been omitted. The scale of the drawn figures is 1 to 25 and the dimensions are shown in centimeters.

[0128] Figure 5: This figure shows all the components and the complete assembled assembly of the claimed improved multi-purpose fire extinguishing and flushing system and apparatus. The apparatus is composed of a set of hydromechanical components including secondary condensers, fluid-air mixer, air-fluid compression system (air-fluid compressor), fluid storage tanks, fluid injection and transfer system, compressed air pump and a complex network of channeled pipes. This network conveys, mixes, compresses and excites the fluid using electronic components such as high frequency ultrasonic transducer, infrared transducer and magnetic suspension coils, from different lateral and opposite angles in three coordinate dimensions, in both hidden lines removed and hidden lines visible modes. The scale of the drawn figures is 1 to 25 and the dimensions are shown in centimeters.

[0129] Figure 6: This figure shows all the components and the complete assembled assembly of the advanced multi-purpose fire extinguishing and washing system and device. The device is composed of a set of hydromechanical components including secondary condensers, fluid-air mixer, air-fluid compression system (air-fluid compressor), fluid storage tanks, fluid injection and transfer system, compressed air pump and a complex network of channeled pipes. This network conveys, mixes, compresses and excites the fluid using electronic components such as high-frequency ultrasonic transducer, infrared transducer and magnetic suspension coils, from different lateral angles in three dimensions, in the form of hidden lines removed. The scale of the drawn figures is 1 to 25 and the dimensions are shown in centimeters.

[0130] Figure 7: This figure depicts all the components and the complete assembled assembly of the advanced multi-purpose flushing and fire extinguishing system and device. The device compresses and excites the fluid from various lateral angles in isometric and trimetric shapes and along three coordinate axes using electronic components such as a high-frequency ultrasonic transducer, an infrared transducer, and magnetic suspension coils. Hidden lines are visible in this image. The scale of the drawn figures is 1 to 25 and the dimensions are shown in centimeters.

[0131] Figure 8: This figure shows all the components and the complete assembled assembly of the claimed advanced multi-purpose fire extinguishing and washing system and apparatus. The apparatus is composed of a set of hydromechanical components including secondary condensers, fluid and air mixer, air and fluid mixture compression system (air-fluid compressor), fluid storage tanks, fluid injection and transfer system, compressed air pump and a complex network of channeled pipes. This network conveys, mixes, compresses and excites the fluid using electronic components such as high frequency ultrasonic transducer, infrared transducer and magnetic suspension coils, from various upper lateral angles and in isometric and trimetric shapes in three coordinate dimensions, as visible hidden lines. The scale of the drawn figures is 1 to 25 and the dimensions are shown in centimeters.

[0132] Figure 9: This figure shows all the components and the complete assembled assembly of the claimed advanced multi-purpose fire extinguishing and washing system and apparatus. The apparatus is composed of a set of hydromechanical components including secondary condensers, fluid and air mixer, air and fluid mixture compression system (air-fluid compressor), fluid storage tanks, fluid injection and transfer system, compressed air pump and a complex network of channeled pipes. This network conveys, mixes, compresses and excites the fluid using electronic components such as high frequency ultrasonic transducer, infrared transducer and magnetic suspension coils, from three different lower lateral angles, in a trimetric form and along three coordinate axes, as visible hidden lines. The scale of the drawn figures is 1 to 25 and the dimensions are shown in centimeters.

[0133] Figure 10: This figure shows all the components and the complete assembled assembly of the claimed advanced multi-purpose fire extinguishing and washing system and apparatus. The apparatus is composed of a set of hydromechanical components including secondary condensers, fluid-air mixer, air-fluid compression system (air-fluid compressor), fluid storage tanks, fluid injection and transfer system, compressed air pump and a complex network of channeled pipes. This network conveys, mixes, compresses and excites the fluid using electronic components such as high-frequency ultrasonic transducer, infrared transducer and magnetic suspension coils, from various lateral and asymptotic angles, in isometric and trimetric shapes in three coordinate dimensions, in the form of hidden lines removed. The scale of the drawn figures is 1 to 20 and the dimensions are shown in centimeters.

[0134] Figure 11: This figure shows a part related to the housing for mounting and locating a set of fluid storage tanks of the claimed advanced multi-purpose washing and fire extinguishing device and system. This part includes 4 tank holding housing parts, a set of tanks with a specific volumetric capacity in the range of 10 to 15 liters and with the ability to accommodate different fluids, an independent and dedicated inlet valve for each storage tank and an independent and dedicated outlet for each tank, with the ability to collect, pre-distill, transfer and remove the fluid flow, from 3 different lateral angles, in three coordinate dimensions, in the form of hidden lines removed. The scale of the drawn figures is 1 to 15 and the dimensions are shown in centimeters.

[0135] Figure 12: This figure depicts a portion of the housing associated with the installation and placement of a set of fluid storage tanks of the claimed system and the improved multi-purpose washing and fire extinguishing device. This portion includes 4 tank holding housing sections, a set of tanks with a specific volumetric capacity in the range of 10 to 15 liters and capable of accommodating different fluids, an independent and dedicated inlet valve for each storage tank and an independent and dedicated outlet for each tank, capable of collecting, pre-distilling, transferring and discharging the fluid flow, from different lateral angles, in isometric, dimetric and trimetric shapes along the three coordinate axes, as visible hidden lines. The scale of the drawn figures is 1 to 15 and the dimensions are shown in centimeters.

[0136] Figure 13: This figure shows a part related to the housing for mounting and locating a set of fluid storage tanks of the claimed improved multi-purpose washing and fire extinguishing system and device. This part includes 4 tank holding housing parts, a set of tanks with a specific volumetric capacity in the range of 10 to 15 liters and with the ability to accommodate different fluids, an independent and dedicated inlet valve for each storage tank and an independent and dedicated outlet for each tank, with the ability to collect, pre-distill, transfer and discharge the fluid flow, from 3 different lateral angles, in isometric and dimetric shapes in three coordinate dimensions, as visible hidden lines. The scale of the drawn figures is 1 to 15 and the dimensions are shown in centimeters.

[0137] Figure 14: This figure shows the secondary condenser section of the advanced multi-purpose combined fire extinguishing and washing system and apparatus claimed in the claimed invention. This section includes a set of compression pipes, compressed air transfer channels, fluid flow and compressed air inlets as well as the outlet of the fluid and compressed air mixture (compressed air-condensed fluid flow outlet) from different horizontal angles, in the upper, lower, lateral and opposite directions along the three coordinate axes, in the form of hidden lines removed. The scale of the drawn figures is 1 to 7 and the dimensions are shown in centimeters.

[0138] Figure 15: This figure shows the secondary condenser section of the advanced multi-purpose combined fire extinguishing and washing system and apparatus claimed in this claimed invention. This section includes a set of compression tubes, compressed air transfer channels, fluid flow and compressed air inlets as well as the outlet of the fluid and compressed air mixture (compressed air-condensed fluid flow outlet) from different horizontal angles, in lateral and asymptotically directions along the three coordinate axes, in the form of visible hidden lines. The scale of the drawn figures is 1 to 7 and the dimensions are shown in centimeters.

[0139] Figure 16: This figure shows the secondary condenser section of the advanced multi-purpose combined fire extinguishing and washing system and apparatus claimed in this claimed invention. This section includes a set of compression pipes, compressed air transfer channels, fluid flow and compressed air inlets as well as the outlet of the fluid and compressed air mixture (compressed air-condensed fluid flow outlet) from 3 different side angles, in isometric, dimetric and trimetric forms in three coordinate dimensions, in the form of visible hidden lines. The scale of the drawn figures is 1 to 7 and the dimensions are shown in centimeters.

[0140] Figure 17: This figure shows a portion of the air-liquid compressor system of the liquid ring compressor type of the advanced multi-purpose combined washing and fire extinguishing apparatus and system claimed in this claimed invention. This portion includes the air-liquid compressor motor, a set of end air fins, an oil pump connected to the lubrication system, a compressed air inlet and outlet valve, as well as the air-liquid mixture inlet and outlet shaft, from different horizontal, lateral, asymptotic and opposite angles along the three coordinate axes, in the form of hidden lines removed. The scale of the drawn figures is 1 to 5 and the dimensions are shown in centimeters.

[0141] Figure 18: This figure depicts a portion of the air-liquid compressor system of the liquid ring compressor type of the advanced multi-purpose combined washing and fire extinguishing apparatus and system claimed in this claimed invention. This portion includes the air-liquid compressor motor, a set of end air fins, an oil pump connected to the lubrication system, a compressed air inlet and outlet valve, and also the air-liquid mixture inlet and outlet shaft, from various horizontal, lateral, asymptotic and opposite angles along the three coordinate axes, in the form of hidden lines removed. The scale of the drawn figures is 1 to 5 and the dimensions are shown in centimeters.

[0142] Figure 19: This figure shows a portion of the air-liquid compressor system of the liquid ring compressor type of the advanced multi-purpose combined washing and fire extinguishing apparatus and system claimed in this claimed invention. This portion includes the air-liquid compressor motor, a set of end air blades, an oil pump connected to the lubrication system, a compressed air inlet and outlet valve, as well as the air-liquid mixture inlet and outlet shaft, from 3 different lateral angles, in isometric, dimetric and trimetric views along the three coordinate axes, in the form of visible hidden lines. The scale of the drawn figures is 1 to 5 and the dimensions are shown in centimeters.

[0143] Figure 20: This figure shows a schematic representation of the electronic section of a high frequency ultrasonic transducer located in a portion of the complex channeled pipe system that conveys, mixes, compresses, and excites the fluid flow of the advanced multi-purpose combined flushing and fire extinguishing system and apparatus claimed in this claimed invention, viewed from various horizontal, lateral, top, bottom, and opposite angles, along three coordinate axes, as visible hidden lines. The scale of the drawn figures is 15 to 1 and the dimensions are shown in centimeters.

[0144] Figure 21: This figure shows a schematic representation of the electronic section of a high-frequency ultrasonic transducer located in a portion of the complex channeled pipe system that conveys, mixes, compresses, and excites the fluid flow of the advanced multi-purpose combined flushing and fire extinguishing system and apparatus claimed in this claimed invention, from various lateral and asymptotic angles, in isometric, dimetric, and trimetric views along the three coordinate axes, as visible hidden lines. The scale of the drawn figures is 15 to 1 and the dimensions are shown in centimeters.

[0145] Figure 22: This figure shows a schematic representation of an electronic component consisting of two infrared transducer sections (infrared transducer) in the central section and a set of magnetic suspension coils (magnetic suspension coils) in the lateral sections, which are part of a complex channeled pipe system that conveys, mixes, compresses and excites the fluid flow from the advanced multi-purpose combined flushing and fire extinguishing system and apparatus claimed in this claimed invention, from two lateral and horizontal angles, along three coordinate axes, as visible hidden lines. The scale of the drawn figures is 15 to 1 and the dimensions are shown in centimeters.

[0146] Figure 23: This figure shows a schematic representation of an electronic component consisting of two infrared transducer parts (infrared transducer) in the central part and a set of magnetic suspension coils (magnetic suspension coils) in the lateral parts, which are part of a complex channeled pipe system that conveys, mixes, compresses and excites the fluid flow from the advanced multi-purpose combined washing and fire extinguishing system and apparatus claimed in this claimed invention, from various lateral and asymptotic angles, in isometric, dimetric and trimetric shapes in three coordinate dimensions, as visible hidden lines. The scale of the drawn figures is 15 to 1 and the dimensions are shown in centimeters.

[0147] Figure 24: This figure shows a portion of a channeled pipe section for conveying fluid flow installed in a portion of a complex channeled pipe system that conveys, mixes, compresses, and agitates fluid flow, of the advanced multi-purpose combined flushing and fire extinguishing system and apparatus claimed in this claimed invention, viewed from 3 different horizontal angles, in the up, down, and opposite directions along the three coordinate axes, in the form of hidden lines removed. The scale of the drawn figures is 1 to 10 and the dimensions are shown in centimeters.

[0148] Figure 25: This figure shows a portion of a channeled pipe section for conveying fluid flow installed in a portion of a complex channeled pipe system that conveys, mixes, compresses, and agitates fluid flow, of the advanced multi-purpose combined flushing and fire extinguishing system and apparatus claimed and advanced in this claimed invention, from various lateral and asymptotic angles along three coordinate axes, in the form of visible hidden lines. The scale of the drawn figures is 1 to 10 and the dimensions are shown in centimeters.

[0149] Figure 26: This figure shows all the components and the complete assembled set of parts related to the complex channeled pipe system that conveys, mixes, compresses and agitates the fluid flow, of the claimed system and advanced multi-purpose washing and fire extinguishing device. The device includes an assembly of a channeled pipe piece for conveying the fluid flow with a set of electronic components including a high frequency ultrasonic transducer, an infrared transducer (IR transducer) and a set of magnetic suspension coils, from lateral and asymptotic angles, along the x-axis, as visible hidden lines. The scale of the drawn figures is 1 to 10 and the dimensions are shown in centimeters.

[0150] Figure 27: This figure shows all the components and the complete assembled set of parts related to the complex channeled pipe system that conveys, mixes, compresses and agitates the fluid flow, of the claimed system and advanced multi-purpose washing and fire extinguishing device. The device includes an assembly of a channeled pipe piece for conveying the fluid flow with a set of electronic components including a high frequency ultrasonic transducer, an infrared transducer (IR transducer) and a set of magnetic suspension coils, from opposite angles, along the y-axis and two different lateral angles, in isometric and dimetric forms, along the three coordinate dimensions, as visible hidden lines. The scale of the drawn figures is 1 to 10 and the dimensions are shown in centimeters.

[0151] Figure 28: This figure shows all the components and the complete assembled set of parts related to the complex channeled pipe system that conveys, mixes, compresses and agitates the fluid flow, of the claimed system and advanced multi-purpose washing and fire extinguishing device. The device includes an assembly of a channeled pipe piece for conveying the fluid flow with a set of electronic components including a high frequency ultrasonic transducer, an infrared transducer (IR transducer) and a set of magnetic suspension coils, from opposite angles, along the y-axis and two different lateral angles, in isometric and dimetric forms, along the three coordinate dimensions, as visible hidden lines. The scale of the drawn figures is 1 to 10 and the dimensions are shown in centimeters.

[0152] Figure 29: This figure shows all the components and the complete assembled set of parts related to the complex channeled pipe system that conveys, mixes, compresses and excites the fluid flow, of the claimed system and advanced multi-purpose washing and fire extinguishing device. The device includes an assembly of a channeled pipe piece for conveying the fluid flow with a set of electronic components including a high frequency ultrasonic transducer, an infrared transducer (IR transducer) and a set of magnetic suspension coils, from various lateral angles, in isometric, dimetric and trimetric shapes, along the three coordinate dimensions, as visible hidden lines. The scale of the drawn figures is 1 to 10 and the dimensions are shown in centimeters.

[0153] Figure 30: This figure shows all the components and the complete assembled set of parts related to the complex channeled pipe system that conveys, mixes, compresses and agitates the fluid flow, of the claimed system and advanced multi-purpose washing and fire extinguishing device. The device includes an assembly of a channeled pipe piece for conveying the fluid flow with a set of electronic components including a high frequency ultrasonic transducer, an infrared transducer (IR transducer) and a set of magnetic suspension coils, from 3 different side angles, in isometric and trimetric forms, along the three coordinate dimensions, as visible hidden lines. The scale of the drawn figures is 1 to 10 and the dimensions are shown in centimeters.

[0154] Figure 31: This figure shows a portion of a system that generates and sprays micro-nano vapor (nano-micro vapor spray) which is part of a complex channeled pipe system that conveys, mixes, compresses and excites fluid flow from the claimed enhanced, multi-purpose fire extinguishing and flushing system and apparatus. This portion includes at least one compressed air outlet channel, at least one fluid flow inlet channel, a chamber for mixing and compressing, at least one compressor for mixing the air flow with the fluid flow entering the chamber and at least one nozzle for spraying and generating vapor, from different angles, in lateral, upper, lower and opposite directions along three coordinate dimensions, as visible hidden lines. The scale of the drawn figures is 2.5 to 1 and the dimensions are shown in centimeters.

[0155] Figure 32: This figure shows a component and system that generates and sprays micro-nano vapor (nano-micro vapor spray). This component acts as part of a complex channeled pipe system that conveys, mixes, compresses, and agitates fluid flow in the claimed improved multi-purpose fire extinguishing and flushing system and apparatus. The system includes at least one compressed air outlet channel, at least one fluid flow inlet channel, a chamber for mixing and compressing, at least one compressor for mixing the air flow with the fluid flow entering the chamber, and at least one nozzle for spraying and generating vapor. These components are shown from various angles, in lateral, upper, lower, and opposite directions, along three coordinate axes, as visible hidden lines. The scale of this figure is 2.5 to 1 and the dimensions are shown in centimeters.

[0156] Figure 33: This figure shows a component and system that generates and sprays micro-nano vapor (nano-micro vapor spray). This component acts as part of a complex channeled pipe system that conveys, mixes, compresses, and agitates fluid flow in the claimed improved multi-purpose fire extinguishing and flushing system and apparatus. The system includes at least one compressed air outlet channel, at least one fluid flow inlet channel, a chamber for mixing and compressing, at least one compressor for mixing the air flow with the fluid flow entering the chamber, and at least one nozzle for spraying and generating vapor. These components are shown from various angles and lateral and frontal directions, along three coordinate axes, as wire-like lines. The scale of this figure is 2.5 to 1 and the dimensions are shown in centimeters.

[0157] Figure 34: This figure shows a section that conveys fluid flow from fluid storage tanks, from various angles, in lateral, upper, lower and opposite directions, in three coordinate dimensions, as hidden lines are omitted. The scale of the drawn figures is 15 to 1 and the dimensions are shown in centimeters.

[0158] Figure 35: This figure shows a section that conveys fluid flow from fluid storage tanks, from different lateral angles, in different directions along the three coordinate axes, as visible hidden lines. The scale of the drawn figures is 15 to 1 and the dimensions are shown in centimeters.

[0159] Figure 36: This figure shows a section conveying fluid flow from fluid storage tanks, from various lateral angles, in isometric, dimetric, and trimetric views along three coordinate axes, as visible hidden lines. The scale of the drawn figures is 15 to 1 and the dimensions are shown in centimeters.

[0160] Figure 37: This figure shows the components and elements of a fluid flow guidance, transfer, guidance and spraying system from fluid storage tanks, which includes at least one fluid flow guidance section and a fluid flow transfer and spray connection pipe, with the ability to adjust the amount and intensity of the fluid flow, from different angles such as lateral, upper, lower and opposite in three coordinate dimensions, as visible hidden lines. The scale of the drawn figures is 15 to 1 and the dimensions are shown in centimeters.

[0161] Figure 38: This figure shows a part that directs, transfers, conveys and sprays fluid flow from fluid storage tanks, with the ability to adjust the rate and intensity of fluid flow, from different lateral angles, in isometric, dimetric and trimetric forms in three coordinate dimensions, visible as hidden lines. The scale of the drawn figures is 15 to 1 and the dimensions are shown in centimeters.

[0162] Figure 39: This figure shows a component comprising a set of magnetic coils and a set of magneto-plasmonic crystals capable of rotating in the angle of incidence of polarized infrared electromagnetic waves, which is used in the claimed invention. The component is shown in various lateral, upper, lower and opposite directions, along three coordinate axes, as visible hidden lines, with the aim of increasing the ability to excite molecules and weaken intermolecular interactions of the molecules of the fluid used more effectively. The scale of the drawn figures is 500 to 1 and the dimensions are shown in centimeters.

[0163] Figure 40: This figure shows a component comprising a set of magnetic coils and a set of magneto-plasmonic crystals capable of rotating in the angle of incidence of polarized infrared electromagnetic waves used in the claimed invention. The component is shown from various lateral angles, in isometric, dimetric and trimetric shapes along the three coordinate axes, with hidden lines removed, with the aim of increasing the ability to excite molecules and weaken intermolecular interactions of the used fluid molecules more effectively and efficiently. The scale of the drawn figures is 500 to 1 and the dimensions are shown in centimeters.

[0164] Figure 14: This figure shows a schematic representation of a set of generators and transducers of strongly polarized infrared waves, which includes two different parts. The first part includes an electronic component consisting of an infrared transducer (infrared transducer) in the central region and a set of magnetic suspension coils (magnetic suspension coils) in the lateral regions. The second part includes a set of magnetic coils and a set of magneto-plasmonic crystals capable of rotating in the angle of incidence of polarized infrared electromagnetic waves used in the claimed invention. These parts are shown from different lateral angles, in isometric form in three coordinate dimensions, with hidden lines removed, with the aim of increasing the ability to excite molecules and weaken intermolecular interactions of the fluid molecules used more effectively and efficiently. The scale of the drawn figures is 500 to 1 and the dimensions are shown in centimeters.

[0165] Figure 42: This figure shows a schematic representation of a set of generators and transducers of strongly polarized infrared waves, which includes two different parts. The first part includes an electronic component consisting of an infrared transducer (infrared transducer) in the central region and a set of magnetic suspension coils (magnetic suspension coils) in the lateral regions. The second part includes a set of magnetic coils and a set of magneto-plasmonic crystals capable of rotating in the angle of incidence of polarized infrared electromagnetic waves used in the claimed invention. These parts are shown from different lateral angles, in isometric form in three coordinate dimensions, with hidden lines removed, with the aim of increasing the ability to excite molecules and weaken intermolecular interactions of the fluid molecules used more effectively and efficiently. The scale of the drawn figures is 500 to 1 and the dimensions are shown in centimeters.

[0166] Figure 43: This figure shows the skeletal formula of a series of perfluorocarbon compounds that act both as elements that increase the hydrophobicity of polar fluids, in the containment area of ​​fluid storage tanks, and as replacements and substitutes for polar fluid streams used, such as water, in specific, sensitive and critical intervention processes, such as firefighting processes. It should be noted that these claimed compounds include 1,1,1,2,2,4,4,5,5,5-decafluoropentan-3-one, 1,1,1,2,4,5,5,5-octafluoro-2,4-bis(trifluoromethyl)pentan-3-one, 1,1,1,2,2,6,6,7,7,7-decafluoro-4,4-bis(trifluoromethyl)heptane-3,5-dione, 2,3,5,6-tetrafluoro-2,3,5,6-tetrakis(trifluoromethyl)cyclohexane-1,4-dione, 2,3,3,5,5,6-hexafluoro-2,4,4,6-tetrakis(trifluoromethyl)cyclohexan-1-one, 4,5-difluoro-2,2-bis(perfluoroethyl)-4,5-bis(trifluoromethyl)-1,3-dioxolane, 2,3,4,5-tetrafluoro-2,3,4,5-tetrakis(trifluoromethyl)cyclopentane-1-one, 2,3,6,9,10,12,14-heptafluoro-2,3,6,9,10,12,14-heptakis(trifluoromethyl)-1,4,8,11-tetraoxadispiro[4.1.4.7.3.5]tetradecane-13-one and 1,3,4,5,6,7-hexafluoro-1,3-bis(trifluoromethyl)-1,3-dihydro-2H-inden-2-one.

[0167] Figure 44: This figure shows a set of skeletal formulas of derivatives of perfluorocarbon compounds that act both as elements that increase the hydrophobicity of polar fluids, in the compartment area of ​​fluid storage tanks, and as replacements and substitutes for polar fluid streams used, such as water, in specific, sensitive and critical intervention processes, such as fire extinguishing processes in particular. It should be noted that these alleged perfluorocarbon derivatives include the perfluorocarbon bases 1,1,1,5,5,5-hexafluoropentan-3-one, 1,1,1,2,7-pentafluoro-4,4-bis(trifluoromethyl) (heptane-3,5-dione), 2,3,5,6-tetrakis(trifluoromethyl)cyclohexane-1,4-dione, 2,2,4,4,6-tetrakis(trifluoromethyl)cyclohexan-1-one, 2,2-bis(perfluoroethyl)-4,5-bis(trifluoromethyl)-1,3-dioxolane, 2,5-bis(trifluoromethyl)cyclopentan-1-one, 2,14-Bis(trifluoromethyl)-1,4,8,11-tetraoxadispiro[4.1.47.35]tetradecanan-13-one, 1,9-bis(trifluoromethyl)-1,3,4,5,6,7,8,9-octahydro-2H-cyclopenta[e]-ace-inden-2-one and 1,3-bis(trifluoromethyl)-1,3-dihydro-2H-inden-2-one. Examples:

[0168] As claimed in the previous section, the claimed advanced multi-purpose washing and fire extinguishing device and system has advanced efficiency in the process of extinguishing and extinguishing fires caused by various agents and sources such as flammable liquids, electronic boards, ignition sources, electrical equipment, electrostatic sparks and dust particles. In addition, this system applies washing processes to various surfaces of various compositions and structures such as stone, wood, brick, metal surfaces made of various metal alloys and laminate derivatives. To provide a more comprehensive explanation, the operation of the claimed advanced multi-purpose combined washing and fire extinguishing device and system is illustrated in 3 different examples.

[0169] In the first example, the effectiveness and practical performance of the claimed washing device and system have been investigated and evaluated on surfaces that are sensitive to abrasion and impact but resistant to oxidation and long-term presence of residual fluid after washing, such as various glass, ceramic, brick and plastic surfaces. In fact, due to the low sensitivity of these surfaces to the long-term presence of water and their high sensitivity to the impact intensity of the fluid flow sprayed on these surfaces, a compressed and dense air flow and a fluid flow with low pressure levels of the compressed and dense air mixture were used, and a compression process with limited intensity was performed to mix the fluid flow and the compressed air.

[0170] Consequently, in this case, the aqueous fluid stream is used as the preferred fluid stream and the light perfluorocarbon compounds are used in relative volume amounts of 0.8-1.2% relative to the volume of water in the reservoir area of ​​the fluid storage tanks. After that, the addition of water into each of these claimed tanks is carried out by the mixing section of the fluid flow guidance, transfer and spraying section located in the lower area and at the outlet of the tanks. The process of mixing the light perfluorocarbon compounds with the water stream takes place at this stage. It should be noted that the optimal weight range of the perfluorocarbon compounds used in this example is less than 500 Daltons.

[0171] Also, after the created mixed flow is transferred through the flow guide, the fluid transporter and the fluid atomizer in the secondary condensers and the internal compressor, the process of mixing the fluid flow with compressed air in the low pressure range of 1.1-1.2 atmospheres is carried out. Next, after passing through the complex system of channeled pipes that transport, mix, compress and excite the claimed fluid flow and is exposed to a set of high-frequency ultrasound waves, strong polarized infrared waves and strong magnetic waves, respectively from a set of high-frequency ultrasound transducers, infrared transducers and magnetic suspension coils, the compressed air mixed flow is converted into liquid droplets in the micro-size range by a set of claimed parts and systems that generate and spray micro-nano vapor (nano-micro vapor spray), and is sprayed by the flow transfer hose towards the claimed surfaces, and the washing process is carried out.

[0172] It should be noted that for these claimed surfaces, due to the low sensitivity to the water flow remaining on each surface after washing, rapid water removal is not a priority and to optimize energy consumption, the minimum energy consumption per piece is considered. For these 3 claimed sets, an ultrasonic frequency range of 150-350 kHz for ultrasonic waves generated by high-frequency ultrasonic transducers, a wavelength range of 5 to 15 microns for infrared waves generated by infrared transducers (infrared transducers), and a magnetic field strength of 0.01 to 0.03 Tesla for the magnetic field generated by the magnetic suspension coils are considered.

[0173] In the second example, the effectiveness and performance of the claimed washing device and system are investigated and evaluated on surfaces resistant to abrasion and impact, but sensitive to the oxidation process and the long-term presence of fluid residue on the surface after the washing process is completed, such as various polymer, metal and metal alloy surfaces.

[0174] In this example, due to the high sensitivity of these surfaces to the long-term presence of water on them and the lower sensitivity and greater resistance of the surfaces to the impact intensity of the fluid flow sprayed on these surfaces, the compression process of the fluid flow is carried out with higher compressed air pressure levels and the fluid flow is mixed and condensed with the compressed air, and the compression process is also carried out with a higher intensity so that the fluid flow is properly mixed with the compressed air.

[0175] Consequently, similar to the first example, in this situation, the aqueous fluid stream is used as the preferred fluid stream, but the volume ratio of the perfluorocarbon compounds is used with higher relative volume values ​​and in the range of 6.2-10.3% relative to the volume of water. In the chamber area of ​​each of these claimed tanks, by the mixing section, after adding water into each of these claimed fluid storage tanks, after the fluid flow guidance, transfer and spraying section located in the lower area and at the outlet of the tanks, the process of mixing the perfluorocarbon compounds with the water stream is carried out.

[0176] It should also be noted that in this case, compounds with a heavier weight range than the perfluorocarbon compounds used in the first example, in the range of 550 to 850 Daltons, are used. After the generated mixed flow is passed through the flow guide, the conveyor and the fluid dispersant in the secondary condensers and the internal compressor, the process of mixing the fluid flow with compressed air is carried out in the high pressure range of 1.3-2 atmospheres.Finally, after passing through a complex system of channeled pipes that convey, mix, compress and excite the claimed fluid flow and is exposed to a series of high-frequency ultrasound waves, strong polarized infrared waves and strong radiated magnetic waves, respectively from a series of high-frequency ultrasound transducers, infrared transducers (infrared transducers) and magnetic suspension coils, the compressed air mixture flow is excited by a series of claimed components and systems that generate and spray micro-nano vapor (nano-micro vapor sprays), and then converted into liquid droplets in the micro-size range and sprayed by a flow transfer hose towards the claimed surfaces, and the washing process is performed.

[0177] It should be noted that due to the high sensitivity to the water flow remaining on these surfaces after washing, rapid water removal is a priority and to optimize energy consumption, the minimum energy consumption for these 3 claimed sets is considered, with a frequency range of 500 kHz to 1.5 million Hz for ultrasonic waves generated by high-frequency ultrasonic transducers, a wavelength range of 3 to 7 microns for infrared waves generated by infrared transducers, and a magnetic field strength of 0.5 to 1.2 Tesla for the magnetic field generated by the magnetic suspension coils.

[0178] Due to the critical and extreme conditions during a fire, the fire extinguishing device and system are evaluated in terms of fire extinguishing. The molecules of the fluid flow used must have the highest level of activity and excitation. It should also be noted that the fire extinguishing application of this system and the claimed washing device can be evaluated on two different sources of fire. The first source includes fabric, leather, wool, wood, cellulose and various natural and synthetic flammable polymers resulting from the ignition of items such as wood, oil and grease.

[0179] In this situation, similar to the first and second examples, the aqueous fluid flow is used as the preferred fluid flow, but the volume ratio of the perfluorocarbon compounds is used with much higher relative volume values ​​than the previous two examples and in the range of 12.5-72.5% relative to the volume of water. In the chamber area, the claimed fluid storage tanks are used, which are subsequently mixed with the water flow by adding a water flow into each of these claimed fluid storage tanks, by the mixing section of the guide, transfer and diffusion section of the fluid flow, which is located in the lower area and adjacent to the outlet of the fluid tanks, the process of mixing the used perfluorocarbon compounds with the water flow is carried out.

[0180] Finally, after passing through a complex system of channeled pipes that convey, mix, compress and excite the claimed fluid flow and subject it to a series of high-frequency ultrasound waves, strong polarized infrared waves and strong radiated magnetic waves, or in other words, to a series of high-frequency ultrasound transducers, infrared transducers and magnetic suspension coils, respectively. The mixed flow comprising water, perfluorocarbon compounds and compressed air is excited by a series of claimed components and systems that generate and spray micro-nano vapor (nano-micro vapor spray), and then converted into liquid droplets in the micro-size range and sprayed by a flow transfer hose towards the claimed surfaces, and the washing process is carried out.

[0181] It should be noted that at these claimed levels, due to the critical and extraordinary conditions caused by fire, a frequency range of 1.5 million Hz to 2 million Hz for ultrasonic waves generated by high-frequency ultrasonic transducers, a wavelength range of 2.5 to 5 microns for infrared waves generated by infrared transducers (infrared transducers), and a magnetic field intensity of 0.8 to 1.5 Tesla for the magnetic field generated by magnetic suspension coils are considered.

[0182] The second source of fire is electrical factors that cause fires such as short circuits, excessive heat build-up in heat-sensitive electronic components such as microcontrollers, faulty power outlets and sockets that are incorrectly and incompletely connected (sockets are not properly connected), on electrical and electronic systems, circuits and boards, have been considered, and the efficiency and performance of the claimed washing device and system in these fire extinguishing processes have been evaluated.

[0183] Naturally, due to the high sensitivity of electronic circuits and boards to polar fluids such as water, it is preferable to use non-polar fluids such as light perfluorocarbon compounds with a weight range of 300 to 450 Daltons. Consequently, perfluoro(2-methyl-3-pentanone) will be used as the preferred fluid stream in these circumstances.

[0184] It should also be noted that in this mechanism, similar to the previous three examples, after the flow of the used perfluorocarbon fluid is transferred through the flow guide, conveyor, and fluid nozzle on the way to the secondary condensers and compressor, the process of mixing the fluid flow with compressed air is carried out in a very high pressure range between 2 and 3.5 atmospheres. Finally, after passing through a complex system of channeled pipes that convey, mix, compress and excite the claimed fluid flow and expose it to a series of high-frequency ultrasound waves, strong polarized infrared waves and strong radiated magnetic waves generated by a series of high-frequency ultrasound transducers, infrared transducers and magnetic suspension coils, respectively, the perfluorocarbon-compressed air fluid mixture flow is excited by a series of claimed components and systems that generate and spray micro-nano vapor (nano-micro vapor sprays), and then converted into liquid droplets in the micro-size range and sprayed by a flow transfer hose towards the claimed surfaces, and the washing process is performed.

[0185] It should be noted that for these claimed electrical and electronic components and systems, due to the extremely critical conditions resulting from fire and also due to the complexity of the intervention conditions resulting from the very high sensitivity of these components to polar fluids, for these 3 claimed sets, the scope of the advantages Very high frequencies in the range of 2 million Hz to 10 million Hz have been used for ultrasonic waves generated by high-frequency ultrasonic transducers, wavelength ranges of 1 to 2.5 microns for infrared waves generated by infrared transducers (infrared transducers), and magnetic field strengths in the range of above 1.2 Tesla for magnetic fields generated by magnetic suspension coils. Industrial application:

[0186] This invention is applicable to all industries related to electrical energy storage, the process of storing electricity and electrical energy, electrical systems such as laptops and cameras, various electromechanical machines such as car batteries, electric cars, electric trains and other devices related to electrical energy storage. This battery can also be used as a backup and emergency energy storage system, as well as in all industries related to the storage of rotational forces such as centrifuges and presses.

Claims

Claim What is claimed: Claim 1) Design and manufacture of an improved combined multi-component washing and fire extinguishing system and device consisting of a set of hydromechanical components and electronic modules and components as follows.- A set of hydromechanical components including at least one set of secondary condensers of the fluid and air flow mixture - At least one piece of the air-fluid compressor system - At least one set of fluid storage tanks, fluid flow injection and transfer system, compressed air pump and a complex channeled pipe system for transferring, mixing, compressing and agitating the fluid - At least one set of components and systems for generating and spraying micro-nano mists (nano-micro mist sprayer) - At least one set of components for directing, transferring and spraying the fluid flow from the fluid storage tanks - A set of electronic components including a set of high frequency ultrasonic transducers, a set of infrared transducers (IR Transducer) and a set of magnetic levitation suspension coils. Claim 2) According to claim 1, it is claimed that the secondary condensers section of the claimed improved combined multi-component washing and fire extinguishing system and apparatus comprises a set of compression tubes, compressed air transferring canals, fluid and compressed air inlets, and a condensed air-fluid bed outlet. Claim 3) According to claim 1, it is claimed that the part related to the air-fluid compressor system of the liquid ring compressor type of the claimed improved combined multi-component washing and fire extinguishing system and device consists of an air-fluid compressor motor, a set of air end edges (Air End), an oil pump linked with the lubrication system (Oil pump linked with the lubrication system), a compressed air inlet and outlet valve and an air-fluid mixture flow inlet and outlet shaft (shaft). Claim 4) According to claim 1, it is claimed that the section related to the housing for embedding and placing a set of fluid storage tanks of the claimed improved combined multi-component washing and fire extinguishing system and device consists of 4 tank storage chamber sections, a set of tanks with a specific volumetric capacity in the range of 10 to 15 liters and with the ability to house different fluids, an independent and dedicated inlet valve for each storage tank and an independent and dedicated outlet section for each tank, with the ability to collect, compress primary (primary condensation), transfer and discharge the fluid flow. Claim 5) It is claimed that the portion of the fluid flow conveying channeled tubular component, which is incorporated into the complex fluid conveying, mixing, compressing, and agitating channeled tubular system portion of the claimed improved combined multi-component washing and fire extinguishing system and device, is the location of a set of electronic components including a set of high frequency ultrasonic transducers, a set of enhanced infrared transducers (IR Transducer), and a set of magnetic levitation suspension coils. Claim 6) According to claim 5, it is claimed that the claimed high frequency ultrasonic transducer electronic component, which is installed in the complex channeled tubular system section that conveys, mixes, compresses, and excites the fluid flow, of the claimed improved combined multi-component washing and fire extinguishing system and device, has an operating range and frequency of the ultrasonic waves produced in the range of 150 kHz or 10 million Hz. Claim 7) According to claim 5, it is claimed that the claimed enhanced infrared transducers (IR Transducer) consist of two infrared transducer sections (IR transducer) in the central part and a set of magnetic levitation suspension coils in the side areas. Claim 8) In accordance with claims 5 and 7, it is claimed that the claimed enhanced infrared transducers (IR Transducers) have an operating range and wavelength of the infrared waves produced in the range of 1 to 15 micrometers. Claim 9) In accordance with claims 5, it is claimed that the magnetic levitation suspension coil assembly has an operating range and a magnetic field strength produced in the range of 0.3 Tesla to 2.5 Tesla. Claim 10) According to claim 1, it is claimed that the part related to a set of parts and systems for producing and spraying micro-nano mists (nano-micro mist sprayers), as part of the part related to the complex channeled tubular system for conveying, mixing, compressing and agitating fluid of the claimed improved combined multi-component washing and fire extinguishing system and device, consists of at least one compressed air inlet channel (compressed air outlet), at least one inlet channel related to the fluid flow, a chamber for mixing and compressing, at least one pump for compressing the mixed air flow with the fluid flow entering the chamber and at least one spray and mist production nozzle. Claim 11) According to claim 10, it is claimed that following the flow entering the internal space of the chamber of a set of components and systems producing and spraying micro-nano mists (nano-micro mist sprayers), a process of creating turbulence and double compression is carried out in order to create a flow with a rheology suitable for producing liquid aerosols in gas and fluid droplets in the form of nano-micro mist. Also, two inlet channels, which are independently installed for the flow of compressed air and the flow of fluid, have provided the possibility of adjusting the volume / mass ratio of compressed air and fluid flow in this section. Claim 12) According to claim 1, it is claimed that the set of parts for guiding, transferring and spraying fluid flow from fluid storage tanks consists of at least one fluid flow guiding part and a fluid flow transfer and spraying connecting pipe, with the ability to adjust the amount and intensity of the fluid flow transferred out of the fluid storage tanks. Claim 13) In accordance with claim 8, it is claimed that the claimed enhanced infrared transducers (IR Transducers) are located in proximity to a set of Magneto-plasmonic crystals that are capable of rotating the angle of radiation of polarized infrared electromagnetic waves produced by the infrared transducers (IR Transducers). Claim 14) In accordance with claims 5, 7, 8 and 13, it is claimed that the claimed advanced infrared transducers (infrared transducers) installed in the vicinity of a set of magneto-plasmonic crystals are embedded in a part of a complex system of channeled pipes that convey, mix, compress and excite the fluid flow, belonging to the claimed advanced multifunctional washing and fire extinguishing system and device, and are used to generate strong polarized infrared waves manipulated by inducing rotation in the angle of radiation of polarized infrared electromagnetic waves. Claim 15) It is claimed that this claimed multi-purpose washing and fire extinguishing system and device is produced using 5 different techniques, including the technique of mixing a liquid fluid flow with compressed air and condensing, suspending, microforming and nanoforming the secondary mixture produced with the help of a set of nozzles and spraying systems such as micro-sprays, micro-sprays and nano-sprays, the technique of stimulating the fluid molecules used in the washing process by high-frequency ultrasound waves, the technique of stimulating the fluid molecules used in the washing process by strongly polarized infrared waves, the technique of manipulating the intermolecular interactions of the fluid molecules used in the washing process, with the help of carrier particles consisting of a set of perfluorocarbon compounds and very fine silicon dioxide powder, and finally, the technique of stimulating and neutralizing the fluid molecules used in the washing process, with the help of applying a strong magnetic field in the range of 0.3 to 2.5 Tesla (0.3-2.5 Tesla). It is. Claim 16) According to claim 15, it is claimed that the technique of mixing a liquid fluid flow with compressed air is performed with the aim of reducing the amount of water or fluid consumed during the surface washing process or performing fire extinguishing and extinguishing operations, and eliminating the residual water flow or fluid flow used during the washing process. Claim 17) In accordance with claim 15, it is claimed that the technique of manipulating and engineering the intermolecular interactions of water molecules or fluid flow used in the washing process, with the help of carrier particles consisting of a set of perfluorocarbon compounds and very fine silicon dioxide powder, has been carried out with the aim of changing and manipulating the boiling point of the fluid in a targeted manner. Claim 18) In accordance with claims 15 and 17, it is claimed that the technique of manipulating and engineering the intermolecular interactions of water molecules or fluid flow used in the washing process, with the help of carrier particles consisting of a set of perfluorocarbon compounds and very fine silicon dioxide powder, has been used with the aim of facilitating the process of trapping gaseous oxygen molecules and significantly reducing the effects of the oxidative activity of oxygen molecules in the air. Claim 19) In accordance with claims 1 and 18, it is claimed that the claimed multi-purpose washing and fire extinguishing system and device has the ability to wash and apply to various surfaces made of diverse compositions and structures and has advanced efficiency in the fire extinguishing process and extinguishing fires caused by various factors and sources such as flammable liquids, electronic boards and circuits, electrical equipment, electrostatic sparks, dust, short circuits, ignition sources, chemicals, textile sources and other flammable materials. Claim 20) In accordance with claim 19, it is claimed that this claimed multi-purpose washing and fire extinguishing system and device can be used in the washing process on both types of surfaces sensitive to abrasion and impact, but resistant to the oxidation process and the long-term presence of residual fluid flow used on the surface such as stone, wood, glass, ceramic, laminate, brick and plastic-based surfaces, as well as a variety of surfaces resistant to abrasion and impact, but sensitive to the oxidation process such as various polymer and metal surfaces, as well as any other type of surface made of various metal alloys and various natural and synthetic polymer derivatives. Claim 21) According to claims 5, 6, 8, 9 and 20, it is claimed that for washing surfaces sensitive to abrasion and impact, but resistant to the oxidation process and long-term presence of residual fluid flow, the process of mixing the fluid flow with compressed air is carried out in the low pressure range between 1.1-1.2 atmospheres and the optimal operating range of the high-frequency ultrasonic transducers, infrared transducers and magnetic suspension coils used is considered to be in the frequency range of 150-350 kHz for the generated ultrasonic waves, in the wavelength range of 5 to 15 microns for the generated infrared waves and in the range of 0.01 to 0.03 Tesla, respectively, for the generated magnetic field intensity. Claim 22) According to claims 5, 6, 8, 9 and 20, it is claimed that for washing surfaces resistant to abrasion and impact, but sensitive to the oxidation process and the long-term presence of residual fluid flow, the process of mixing the fluid flow with compressed air is carried out in the medium pressure range between 1.3-2 atmospheres and the optimum operating range for the high-frequency ultrasonic transducers, infrared transducers and magnetic suspension coils used is considered to be in the frequency range of 500 kHz to 1.5 million Hz for the generated ultrasonic waves, in the wavelength range of 3 to 7 microns for the generated infrared waves and in the range of 0.5 to 1.2 Tesla for the generated magnetic field intensity, respectively. Claim 23) In accordance with claims 5, 6, 8, 9 and 20, it is claimed that for performing intervention operations in the field of fire extinguishing and extinguishing non-electrical agents that cause fires, such as various surfaces of fabric, leather, wool, wood, cellulose and various types of flammable natural and synthetic polymers and other sources of ignition of flammable compounds such as wood, oil and fat, the process of mixing the fluid flow with compressed air is carried out in the high pressure range between 1.7-2 atmospheres and the optimal operating range for the high-frequency ultrasonic transducers, infrared transducers and magnetic suspension coils that have been used is considered to be in the frequency range of 1.5 million Hz to 2 million Hz for the generated ultrasonic waves, in the wavelength range of 2.5 to 5 microns for the generated infrared waves and in the range of 0.8 to 1.5 Tesla for the intensity of the generated magnetic field, respectively.

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