KR-20260067698-A - Electrod structure production method for goggle type electrical stimulator
Abstract
The present invention aims to provide a method for manufacturing an electrode structure for a goggle-type electric stimulation device, which is applied to a goggle-type electric stimulation device that can perform other tasks even when worn with the eye area open and stimulation applied, and in which the entire configuration including the electrode is implemented with flexibility so that it is convenient to wear and has a relatively long lifespan. To achieve the above objective, the present invention comprises a method for manufacturing an electrode structure for a goggle-type electrical stimulation device, the method comprising: a preparation step of preparing a conductor material, an insulating material, and a conductor mold for forming the conductor; a conductor material placement step of placing a preform for the conductor material onto the prepared conductor mold; a conductor molding step of forming the conductor by heating and pressurizing the conductor mold; a conductor discharge step of disassembling the conductor mold and discharging the formed conductor; a whole mold preparation step of preparing a whole mold for forming the electrode structure; a conductor placement step of placing the conductor inside the whole mold; an insulating material placement step of placing a preform for the insulating material onto the whole mold; an insulating part molding step of manufacturing the electrode structure by heating and pressurizing the whole mold to form an insulating part between the conductors; and an electrode structure discharge step of disassembling the whole mold and discharging the electrode structure.
Inventors
- 윤정민
Assignees
- 주식회사 미가
Dates
- Publication Date
- 20260513
- Application Date
- 20241106
Claims (10)
- In a method for manufacturing an electrode structure for a goggle-type electric stimulation device, A preparation step for preparing conductor material, insulating material, and a conductor mold for forming the conductor; A conductor material placement step of placing a preform for the conductor material onto a prepared conductor mold; A conductor forming step of forming a conductor by heating and pressurizing the above conductor mold; A conductor discharge step for disassembling the conductor mold and discharging the molded conductor; A full mold preparation step for preparing the entire mold for molding the electrode structure; A conductor mounting step for mounting a conductor inside the entire mold; An insulating material placement step of placing a preform for the insulating material onto the entire mold above; An insulating part forming step of manufacturing an electrode structure by heating and pressurizing the entire mold to form an insulating part between the conductor parts; and A method for manufacturing an electrode structure for a goggle-type electric stimulation device, characterized by including an electrode structure discharge step of disassembling the entire mold to discharge the electrode structure.
- A method for manufacturing an electrode structure for a goggle-type electric stimulation device according to claim 1, wherein the conductor material is conductive silicone rubber and the insulating material is silicone rubber.
- A method for manufacturing an electrode structure for a goggle-type electric stimulation device according to claim 2, wherein the conductive silicone rubber comprises carbon powder in the silicone rubber.
- A method for manufacturing an electrode structure for a goggle-type electric stimulation device according to claim 1, wherein the conductor mold comprises an internal space in which the conductor is formed, a channel communicating with the internal space, a transfer port communicating with the channel, and a pressure mold for pressing the transfer port.
- A method for manufacturing an electrode structure for a goggle-type electric stimulation device according to claim 4, wherein, in the step of seating the conductor material, the preform for the conductor material is seated on the transfer port.
- A method for manufacturing an electrode structure for a goggle-type electrical stimulation device according to claim 1, wherein the entire mold comprises an internal space in which an electrode structure is formed, a channel communicating with the internal space, a transfer port communicating with the channel, and a pressure mold for pressing the transfer port.
- A method for manufacturing an electrode structure for a goggle-type electric stimulation device according to claim 6, wherein the conductor is disposed in the internal space during the conductor seating step.
- A method for manufacturing an electrode structure for a goggle-type electric stimulation device according to claim 6, wherein, in the step of mounting the insulating material, the preform for the insulating material is mounted on the transfer port.
- A method for manufacturing an electrode structure for a goggle-type electric stimulation device according to claim 7, wherein, in the insulating part molding step, the insulating part material is injected into the space between the conductor parts disposed in the internal space and molded.
- A method for manufacturing an electrode structure for a goggle-type electric stimulation device, wherein, in claim 4 or claim 6, the pressure mold comprises a protrusion that presses the transfer port.
Description
Electrode structure production method for goggle-type electrical stimulator The present invention relates to a method for manufacturing an electrode structure for a goggle-type electric stimulation device, and more specifically, to a method for manufacturing an electrode structure for a goggle-type electric stimulation device that prevents aging by stimulating the area around the eyes. Interest in health has been a top priority for people from the beginning of time to the future. Consequently, therapeutic devices for health are being developed in a wide variety of ways, ranging from equipment used in hospitals to home-use and portable devices. Along with health, beauty is one of people's top interests. In particular, many people pursue beauty by investing significant amounts of money. For this reason, therapeutic devices that allow one to pursue both health and beauty can be considered the best products. Meanwhile, human eyes undergo deformities such as myopia and hyperopia due to living environments and aging, as well as vision loss caused by various eye diseases. In particular, modern people have a very high incidence of myopia and hyperopia due to accumulated eye fatigue from frequent use of computers and mobile devices, as well as prolonged exposure to artificial light such as indoor lighting. For this reason, various methods are being attempted to relieve eye strain and prevent vision deterioration. One example of such methods is the stimulation of acupoints around and related to the eyes, eye exercises and eye massage, and the improvement of blood flow through far-infrared irradiation. Phototherapy, which utilizes light, has long been practiced using sunlight. Phototherapy is a treatment method that involves irradiating light within a set period using devices with specific wavelengths and artificial light sources, such as sunbathing within a harmless range or tanning. Furthermore, it performs various therapeutic functions within the human body, such as harmonizing and balancing the mind and body through specific color wavelengths. Recently, phototherapy is being widely used in surgical treatments such as acne, jaundice, pain management, wound healing, and hair treatment, utilizing halogen lamps or lasers of specific wavelengths. Furthermore, infrared light sources are being developed and sold for pain relief not only in physical therapy clinics but also for home use. In particular, since optical treatment methods using light are pain-free, consumer interest has been steadily increasing in recent years. To satisfy such consumer interest and desires, a therapeutic device according to Registered Patent No. 2013247, capable of performing treatment using light color and electrical stimulation, has been proposed. This patent has the advantage of removing facial fat and strengthening facial muscles by irradiating various lights onto the facial skin and applying low-frequency residual electrodes to certain muscle areas when worn by a user. However, since the above technology operates while being worn on the entire face, it has the disadvantage that one must focus solely on treatment when wearing it. In order to overcome the aforementioned disadvantages, a goggle-type electric stimulation device has been proposed that is configured in the form of goggles for easy wearing, and also has an open eye area so that other tasks can be performed even while the device is being worn and stimulation is applied. The above-described stimulating device includes an electrode structure that comes into contact with the area around the eye, and the electrode structure must have an electrode to which electricity is applied formed based on a flexible material. At this time, the above electrode structure has the disadvantage of being difficult to manufacture because it must be composed entirely of a flexible material, with some areas implemented as conductors to which electricity is applied, and configured to have a relatively long lifespan. FIG. 1 is a configuration diagram of a goggle-type electric stimulation device to which an electrode structure manufactured by the method for manufacturing an electrode structure for a goggle-type electric stimulation device according to the present invention is applied. FIG. 2 is a configuration diagram of the wearable module illustrated in FIG. 1, and FIG. 3 is a configuration diagram of the electrode structure shown in FIG. 2, and FIG. 4 is a flowchart of a method for manufacturing an electrode structure for a goggle-type electric stimulation device according to the present invention, and FIG. 5 is a configuration diagram of a conductor mold prepared in the preparation step illustrated in FIG. 4, and FIG. 6 is an explanatory diagram of the conductor mounting step illustrated in FIG. 4, and FIG. 7 is an explanatory diagram of the conductor forming step illustrated in FIG. 4, and FIG. 8 is a configuration diagram of the entire mold prepared in the overall mold preparation step illustrated in