TH24879Y - The process of producing plasma-activated water using the dielectric barrier discharge technique with a series of concentric insulated tubes. - Google Patents

Abstract

This invention concerns a process for producing plasma-activated water using the dielectric barrier discharge (DEB) technique with a coaxial insulated tube assembly. This process modifies water properties through an advanced oxidation (AOP) process combined with a high-intensity electric field, electromagnetic waves, ultraviolet radiation, photons, and shock waves generated during plasma creation. The DEB technique is a clean, uncomplicated process that does not require chemical precursors and allows for long and highly efficient plasma activation. The plasma-activated water produced using this method has various applications, such as the production of liquid fertilizers for agriculture, the breakdown of hazardous chemical structures in water, wastewater treatment, and microorganism removal in water.

Claims (7)

1. Plasma-activating water production process using dielectric barrier discharging technique with stacked insulated tube assembly. Participating in this invention consists of: A. Prepare the water to be used for plasma stimulation by connecting the water delivery pipes. It is used with a peristalic pump to transport water from a water storage container before... Activate the plasma to the water discharge head and prepare a container to collect the plasma activation water. Designed to hold water that has been stimulated with plasma. B. Prepare the plasma generator using a dielectric plasma generator. A coaxial insulated tube discharge barrier system, where the system is in the form of a box. It consists of a housing for the plasma generator and a set of concentric insulated tubes mounted on a base. The plasma generator mounting box, where the concentric insulated tube assembly is located, will experience heat buildup during operation. Plasma is generated by filling the inside of a concentric insulating tube with an electrically conductive solution. A peristaltic pump conveys the electrically conductive solution through a concentric insulated pipe to the cooling system. To maintain the temperature of the electrically conductive solution; this conductive solution is also considered a conductor. Electrical components are connected to a conductive rod inserted into the core of a stacked insulating tube at the base of the mounting box. The plasma generator, made from electrical insulation material, has three symmetrical, stepped groove levels. Along the central axis of the plasma generator mounting base, the grooves are aligned vertically. The grooves in the channel are aligned with the concentric layer of insulation pipes. The purpose of these grooves is to support the placement of the panels. A rectangular electrical conductor at the bottom level and a rectangular insulating sheet covering the rectangular electrical conductor sheet. It is placed at the middle level, where the top level, which is the surface of the rectangular insulation panel at the middle level, will act as... The water flow path from the water emitter assembly to the plasma stimulation container in step A is performed. Position the insulation panel so that there is sufficient distance between the top surface of the rectangular insulation sheet and the bottom surface of the stacked insulation pipe. The coaxial system, specifically the plasma generator mounting box, has a conveying pump connected for suction. Ozone gas is produced during plasma creation and is then reused to stimulate water in storage containers. Before plasma stimulation, or the container for holding the plasma stimulation fluid, as mentioned in point A. C. Plasma is generated using a plasma generator employing the dielectric barrier technique. The coaxial insulated tube discharge in point B is achieved by applying a high-voltage alternating current. Or, a pulsed direct current (DC) voltage from a high-voltage source is applied to the conductor. The electrical and ground terminals of the high-voltage power source are connected to the rectangular conductive plate of... Plasma generator using dielectric barrier discharge technique with coaxial insulated tube assembly. In point B, plasma is generated in the area between the upper surface of the rectangular insulation sheet and the lower surface of... Coaxial insulated tube of a plasma generator using dielectric barrier discharge technique. The concentric insulated pipe set in item B. d. Initiate the plasma-activated water production process using the dielectric barrier technique. The discharge is achieved using a concentric insulated tube assembly, with the plasma stimulation water container arranged within it. Clause (a) is placed at the end of the water flow channel of the dielectric plasma generator. The discharge barrier, a concentric insulated pipe assembly as described in point B, then releases the water to be used for the stimulation. With plasma from the water discharge head assembly, as in point A, it flows into the end of the water flow channel of the generator. Plasma using the dielectric barrier discharge technique with a coaxial insulated tube assembly as described in point B. The released water is stimulated by the plasma in section D and then flows down to be collected in a storage container. The plasma-stimulating water in point A. To re-stimulate the plasma-stimulating water, do so by introducing the water. The plasma is stimulated from the container holding the plasma stimulation fluid in step A, and then recirculated back into the container. For storing water before plasma stimulation as described in point A. The officer then deals with the ozone gas produced by taking the other end of the pipe from the pump. The gas is transported in step B by immersing it in a water container before plasma activation, or in a vessel. For storing plasma-stimulating water, as in point A, to utilize the ozone gas produced during plasma creation. It can be used to further stimulate the water process. However, if you want to remove the ozone produced, you can do so by... Connect the other end of the pipe from the gas delivery pump (in step B) to the ozone removal system. 2. Plasma-activated water production process using dielectric barrier discharge technique with stacked insulated tube assembly. In accordance with Claim 1, a peristaltic pump is used to deliver water, providing a flow rate within the range of 50 - 200 milliliters per minute 3. Plasma-activated water production process using dielectric barrier discharge technology with a stacked insulated tube assembly. In accordance with Claim 1, the electrically conductive peristaltic pump is provided with a flow rate within the range... 100 - 1000 milliliters per minute 6. Plasma-activated water production process using dielectric barrier dissacrificial discharging technique with stacked insulated tube assembly. In accordance with Claim 1, the gas conveying pump shall operate at a speed of approximately 285 revolutions per minute. (rpm) up to 1,200 revolutions per minute 7. Plasma-activated water production process using dielectric barrier discharge technology with a stacked insulated tube assembly. In accordance with Claim 1, the high voltage power supply shall provide the voltage and frequency that It is suitable for systems in the range of 5 - 30 kilovolts and 50 - 200,000 hertz, respectively.