Non-invasive nitric oxide generation devices using near-infrared lightand the medical and healthcare technologies that utilise them

Abstract

The present invention relates to a non-invasive device that generates nitric oxide within biological tissues using near-infrared rays, and to medical and health management technologies utilizing the same. The present invention comprises an LED or laser element that emits near-infrared rays of a specific wavelength and activates nitric oxide-producing enzymes to provide effects such as promoting blood circulation, strengthening the immune system, relieving pain, and alleviating stress. The device enhances user convenience and efficiency by including a temperature and output control system, a user-customized interface, and enhanced safety features. The present invention can be utilized in various application fields, such as medical institutions, homes, and sports rehabilitation.

Description

Technology Field

[0001] The present invention relates to a device for non-invasively generating nitric oxide in biological tissues using near-infrared rays, and to medical and health management technologies utilizing the same. In particular, as a technology that supports the promotion of blood circulation, strengthening of the immune system, pain relief, and tissue regeneration, it can be applied to medical institutions and home healthcare devices. Background Technology

[0003] Near-infrared (NIR) is a region of the electromagnetic spectrum with wavelengths primarily ranging from 700 nm to 2500 nm. Due to its deep penetration into biological tissues and efficient absorption rate, it induces various biological and physiological responses. In particular, near-infrared radiation exhibits excellent effects in scavenging reactive oxygen species at the cellular level, enhancing ATP production in mitochondria, and promoting the synthesis of nitric oxide (NO), a signaling molecule.

[0004] Nitric oxide is produced in vascular endothelial cells and performs important physiological functions, such as vasodilation, anti-inflammatory effects, and the regulation of immune responses. Nitric oxide is generally generated within cells by an enzyme called Nitric Oxide Synthase (NOS), and numerous studies have demonstrated that near-infrared radiation of specific wavelengths increases the activity of this enzyme, thereby promoting nitric oxide production. This mechanism has opened the way for new innovations in medical and healthcare technologies.

[0005] Existing technologies primarily utilize LED and laser-based devices that emit near-infrared light of a single wavelength, thereby providing a limited range of therapeutic effects. However, the limitations of existing technologies stem mainly from the following factors:

[0006] Lack of efficiency: Near-infrared energy does not sufficiently reach biological tissues, or the efficiency of nitric oxide production is low.

[0007] Functional limitation:The focus is placed only on certain localized effects, such as improved blood circulation and pain relief.

[0008] Safety Issues: There is a risk of tissue damage and burns due to excessive energy release.

[0009] To overcome these limitations, the present invention proposes a technology that amplifies physiological responses by efficiently utilizing near-infrared rays of multiple wavelengths, thereby providing broad application possibilities in the medical and healthcare fields. The problem to be solved

[0011] Efficient control of nitric oxide production: In existing technologies, the generation of nitric oxide primarily depends on specific conditions, and the low generation rate has limited therapeutic effects. This invention maximizes the efficiency of nitric oxide generation by precisely controlling the wavelength, intensity, and irradiation time of near-infrared rays.

[0012] Implementation of multiple physiological effects: Conventional near-infrared devices have focused on single effects, such as improving blood circulation or alleviating pain. This invention realizes multiple physiological effects by integrally providing immune system strengthening, tissue regeneration promotion, stress relief, and anti-inflammatory effects through the generation of nitric oxide.

[0013] Possibility of whole-body application: Existing technologies have primarily enabled treatment limited to specific areas. The present invention aims to improve overall health by utilizing a wearable device and a full-body panel.

[0014] Ensuring safety and user convenience: By controlling the output intensity and temperature of near-infrared rays in real time, the risk of tissue damage is eliminated, and the treatment process is streamlined through a user-friendly interface.

[0015] Providing treatment options for specific diseases: It presents a new therapeutic approach for complex and intractable diseases such as cancer, diabetes, and chronic pain, and is designed to be used in conjunction with traditional treatments. means of solving the problem

[0017] Claim as is Effects of the invention

[0019] Strengthening blood circulation and the immune system through nitric oxide production: The present invention provides the effect of vasodilation and improved blood flow by using near-infrared rays of a specific wavelength to activate the Nitric Oxide Synthase (NOS) enzyme in biological tissues, thereby promoting the production of nitric oxide. This enhances the delivery of oxygen and nutrients and activates the immune system, contributing to the prevention of infection and the improvement of overall health.

[0020] Tissue Regeneration and Pain Relief: Near-infrared radiation promotes ATP production at the cellular level to support the regeneration of damaged tissues and reduces inflammatory mediators, providing pain relief in various conditions such as arthritis, muscle pain, and chronic pain.

[0021] Increased possibility of treating specific diseases: In complex diseases such as cancer and diabetes, nitric oxide generation technology utilizing near-infrared light can contribute to cellular metabolism and blood sugar regulation. This enhances therapeutic effects when used in conjunction with existing drug-based therapies.

[0022] Improved safety and user convenience: This invention ensures safety through real-time temperature and output intensity control functions and provides user-customized treatment via a mobile application. This enables the implementation of technology that can be easily utilized by medical professionals and general users. Brief explanation of the drawing

[0024] This diagram illustrates the overall configuration and operating principle of a device that efficiently generates nitric oxide within biological tissues using near-infrared rays. The main components are Near-infrared generating module class Temperature control system As such, they ensure user safety and are designed for various therapeutic purposes. also, Wearable panel class Local treatment probe It enables both whole-body and specific-site treatment, User Interface and data storage deviceIt supports personalized treatment and efficient data management. The design of the drawings clearly and visually represents innovative technologies applicable in various fields such as medical care, rehabilitation, and home therapy. Specific details for implementing the invention

[0025] Near-infrared generator module design: The present invention includes LED and laser elements that emit multiple wavelengths between 700 nm and 900 nm. This wavelength range is suitable for optimizing nitric oxide production and physiological responses. The LED array provides a uniform energy distribution, and the laser enables intensive treatment on specific areas.

[0026] Nitric Oxide Activation Mechanism: When near-infrared light reaches tissues, it stimulates the respiratory process of intracellular mitochondria to increase ATP production and activates NOS enzymes to induce nitric oxide production. To achieve this, technology for precisely controlling both thermogenic and non-thermal effects is integrated.

[0027] Temperature and Output Control System: The device monitors tissue temperature in real time through high-resolution sensors and automatically adjusts output intensity. This prevents side effects caused by overheating of the treatment site and provides an optimal treatment environment.

[0028] User Interface and Data Management:

[0029] Through a touchscreen-based display, users can select a treatment mode and adjust the intensity.

[0030] It is integrated with a mobile application to enable the storage, analysis, and personalized recommendations of treatment data.

[0031] Application method:

[0032] Topical application: Near-infrared light is irradiated onto a specific area using an LED or laser probe.

[0033] Full body application:It provides whole-body treatment using a wearable near-infrared panel, which includes a design suitable for long-term use.

[0034] Application Scenario:

[0035] Medical institutions: Cancer treatment, arthritis, nerve damage rehabilitation.

[0036] Household use: Stress management, skin care, improvement of chronic fatigue.

[0037] Sports and Rehabilitation: Muscle recovery after exercise, injury prevention and treatment.

[0038] Based on these detailed components and operating principles, the present invention achieves a groundbreaking improvement over existing technologies and promotes innovative changes in medical and healthcare in general.

Claims

Claim 1 A non-invasive device for generating nitric oxide in biological tissue using near-infrared rays, comprising an LED or laser element that emits near-infrared rays within a specific wavelength range, and characterized by inducing the activation of nitric oxide synthase. The device according to claim 1, characterized in that the near-infrared generating module has a wavelength range of 700 nm to 900 nm and includes a control system capable of adjusting the output intensity to optimize nitric oxide generation. A device according to claim 1, characterized by including a temperature control system capable of monitoring and adjusting the temperature and output of the device in real time and enhancing user safety. An interface that is linked with a near-infrared ray generator, characterized by including a mobile application that provides program selection, intensity adjustment, and usage data for the treatment of specific diseases. A method for providing effects of promoting blood circulation, relieving pain, strengthening the immune system, and relieving stress by utilizing a nitric oxide generator, characterized by including local or systemic application of the device. A method according to claim 5, characterized by using a near-infrared panel designed in a wearable form for full-body application.

Images