Thermal-oxygen synergistic internal diathermy cabin

Abstract

The invention discloses a heat-oxygen synergistic internal diathermy cabin, and belongs to the technical field of internal diathermy cabins. The bin body is an arc-shaped plate which is arched upwards, and a thermal therapy cabin is formed between the bin body and the front machine body; the rear fuselage is in butt joint with the front fuselage; the bed board is connected to the top of the front machine body and the top of the rear machine body in a sliding mode, and the bed board extends into the thermal therapy cabin; through the heating part connected with the heater, a radiofrequency internal diathermy thermal field is formed in the thermal therapy cabin, the oxygen generator supplies oxygen to the oxygen uptake tube to form an oxygen field, and a thermal oxygen double-field coupling cabin body structure under the space-time synergistic effect of the thermal field and the oxygen field realizes compensatory oxygen demand balance and tissue oxygenation optimization from the physiological support level; mitochondrial function activation and lactic acid removal acceleration from a curative effect enhancement mechanism are realized, neuroregulation improvement and heat tolerance improvement from an experience optimization dimension are realized, and the use effect is good.

Description

Technical Field

[0001] The present invention belongs to the technical field of internal diathermy cabins, and in particular relates to a heat-oxygen coordinated internal diathermy cabin. Background Art

[0002] Radiofrequency internal diathermy is a technology that uses radiofrequency (RF) energy to deeply heat human tissue. It is widely used in medical treatment and rehabilitation. Its core principle is to use high-frequency electromagnetic waves or electric currents to act on the human body, causing the molecules in the tissue to vibrate and rub, which is then converted into heat energy to achieve the purpose of diathermy treatment.

[0003] The internal diathermy chamber is a device that achieves deep tissue hyperthermia through internal heating technology. Its core lies in non-invasive energy penetration and precise temperature control.

[0004] At present, the use effect of internal diathermy chamber is average and cannot meet the expectations of users. Summary of the Invention

[0005] The purpose of the present invention is to solve the above-mentioned problems and to propose a heat-oxygen coordinated internal diathermy chamber.

[0006] In order to achieve the above objectives, the present invention adopts the following technical solution: a heat-oxygen coordinated internal diathermy chamber, comprising:

[0007] front fuselage;

[0008] a cabin body, which is an upwardly arched arc-shaped plate, and a thermal therapy cabin is formed between the cabin body and the front fuselage;

[0009] a rear fuselage docked to the front fuselage;

[0010] a bed board, which is slidably connected to the top of the front fuselage and the top of the rear fuselage, and the bed board extends into the thermal therapy cabin;

[0011] A heater is installed in the front fuselage, and a heating portion connected to the heater is installed in the compartment;

[0012] an oxygen concentrator mounted in the rear fuselage;

[0013] an oxygen inhalation tube, which is fixedly connected to the rear fuselage and communicates with the oxygen concentrator;

[0014] A controller is mounted on the warehouse body.

[0015] As a further description of the above technical solution:

[0016] The oxygen inhalation tube is connected to an antioxidant nasal oxygen tube containing a selenized chitosan coating.

[0017] As a further description of the above technical solution:

[0018] The controller integrates an AI health advisor model.

[0019] As a further description of the above technical solution:

[0020] The oxygen curtain flow rate of the oxygen concentrator is 1.2m / s±0.1, and the infrared radiation flux density of the heating part is 50mW / cm 2 .

[0021] As a further description of the above technical solution:

[0022] The heating part adopts a gradient infrared radiation array.

[0023] In summary, due to the adoption of the above technical solution, the beneficial effects of the present invention are:

[0024] In the present invention, a radio frequency internal heat-transmitting heat field is formed in the hyperthermia cabin through the heating part connected to the heater, and the oxygen concentrator supplies oxygen to the oxygen inhalation tube to form an oxygen field. The thermal and oxygen dual-field coupling cabin structure with the spatiotemporal synergistic effect of the thermal field and the oxygen field realizes the compensatory oxygen demand balance and tissue oxygenation optimization from the physiological support level, realizes the activation of mitochondrial function and accelerated lactate clearance from the mechanism of therapeutic effect enhancement, realizes the improvement of neural regulation and heat tolerance from the dimension of experience optimization, and has a good use effect. BRIEF DESCRIPTION OF THE DRAWINGS

[0025] Figure 1 This is a schematic diagram of the overall structure of a heat-oxygen coordinated internal diathermy cabin.

[0026] Figure 2 An exploded view of a heat-oxygen synergistic internal diathermy chamber.

[0027] Figure 3 A cross-sectional view of a heat-oxygen synergistic internal diathermy chamber.

[0028] Legend:

[0029] 1. Front fuselage; 2. Cabin body; 3. Hyperthermia chamber; 4. Rear fuselage; 5. Bed board; 6. Heater; 7. Heating unit; 8. Oxygen generator; 9. Oxygen tube; 10. Controller. DETAILED DESCRIPTION

[0030] The following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the accompanying drawings. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making any creative efforts shall fall within the scope of protection of the present invention.

[0031] See also Figure 1-3 The present invention provides a technical solution: a heat-oxygen coordinated internal diathermy chamber, comprising:

[0032] Front fuselage 1;

[0033] A chamber body 2 is an upwardly arched arc-shaped plate, and a thermal treatment chamber 3 is formed between the chamber body 2 and the front fuselage 1;

[0034] a rear fuselage 4 docked on the front fuselage 1;

[0035] a bed board 5 slidably connected to the top of the front fuselage 1 and the top of the rear fuselage 4 , and the bed board 5 extends into the thermal therapy chamber 3 ;

[0036] A heater 6 is installed in the front fuselage 1, and a heating unit 7 connected to the heater 6 is installed in the compartment 2;

[0037] an oxygen concentrator 8 installed in the rear fuselage 4;

[0038] an oxygen intake pipe 9, which is fixedly connected to the rear fuselage 4 and communicates with the oxygen concentrator 8;

[0039] A controller 10, which is mounted on the warehouse body 2;

[0040] The oxygen inhalation tube 9 is connected to an antioxidant nasal oxygen tube containing a selenized chitosan coating;

[0041] The controller 10 is integrated with an AI health advisor model to recommend personalized thermal oxygen prescriptions based on the user's metabolic characteristics;

[0042] The oxygen curtain flow rate of the oxygen generator 8 is 1.2m / s±0.1, and the infrared radiation flux density of the heating part 7 is 50mW / cm 2 ;

[0043] The heating unit 7 uses a gradient infrared radiation array (wavelength 8-12 μm accounts for >70%) to achieve deep tissue heating (temperature difference 3 cm below the skin <1°C). The oxygen concentrator 8 has built-in vortex oxygen curtain technology (oxygen concentration gradient: 50% head → 35% foot) to adapt to the physiological oxygen demand of the human body.

[0044] Implantable fiber optic sensor array (monitoring deep tissue temperature / PO2, accuracy ±0.1°C / ±2mmHg);

[0045] An intelligent adjustment system based on the metabolic equivalent (MET) algorithm matches heat output and oxygen flow in real time.

[0046] Mechanism of action:

[0047] Compensatory oxygen demand balance: When core temperature rises by 1°C, basal metabolic rate increases by approximately 13%. At 40°C, the body's oxygen consumption increases by approximately 40% compared to normal. Inhaling 30-40% oxygen concentration can increase alveolar oxygen partial pressure from 100 mmHg to 200 mmHg, effectively compensating for the oxygen debt caused by hypermetabolism.

[0048] Optimizing tissue oxygenation: Hyperthermia-induced skin vasodilation (blood flow can reach 5-7 times that of normal temperature) can lead to relative visceral ischemia. Maintaining blood oxygen saturation above 95% ensures oxygen supply to vital organs such as the heart and brain, while also increasing the synthesis efficiency of heat shock protein (HSP70) by 20-30%.

[0049] Activation of mitochondrial function: Adequate oxygen supply can increase ATP production efficiency by 15-25%, and combined with the enzyme activity enhancement effect of hyperthermia, it accelerates the repair of damaged cells. Studies have found that 42°C hyperthermia combined with hyperbaric oxygen can increase the apoptosis rate of tumor cells by 3 times (normal cells have selective protection);

[0050] Accelerated lactate clearance: In a high-temperature environment, exercise metabolism analogy can increase blood lactate levels by 2-3 times. Inhaling 40% oxygen can increase lactate clearance by 35% and reduce muscle soreness index by approximately 50%.

[0051] Improved neuroregulation: Increasing the oxygen partial pressure to 300 mmHg can enhance the sensitivity of gamma-aminobutyric acid (GABA) receptors. Combined with heat therapy, endorphin secretion (which can increase by 200%) can achieve a dual calming effect, and anxiety scale scores can improve by 40%;

[0052] Improved heat tolerance:

[0053] Clinical data showed that the oxygen inhalation group could tolerate high temperatures for 30-45 minutes longer, and their subjective discomfort score decreased by 2.3 points (10-point scale);

[0054] Thermodynamic enhancement effect: When tissue temperature reaches 39-41°C, cell membrane fluidity increases by 20-30%, and the oxygen diffusion coefficient increases by 1.5 times. Combined with a gradient oxygen pressure (30-50kPa), the penetration depth of oxygen molecules can be increased by 40% (based on a modified Fick's law model);

[0055] Mitochondrial respiratory chain remodeling:

[0056] Heat stress (HSP70 activation) combined with a high oxygen environment (FiO2 0.4-0.6) can increase the activity of complex IV (cytochrome C oxidase) by 80%, and the ATP synthesis efficiency reaches 2.1 times that under normal temperature and normoxia (based on experimental data of isolated cardiomyocytes);

[0057] Microcirculatory dynamic balance: Thermal expansion (skin blood flow ↑500%) and oxygen drive (tissue PO2 ↑60%) synergistically achieve "blood flow-oxygen supply decoupling," resolving the paradox of visceral ischemia under high temperature (liver oxygen partial pressure can be maintained above the safety threshold of 25 mmHg);

[0058] Redox regulation: By precisely controlling oxygen exposure time (<90 minutes) and temperature phase (40°C steady state ± 0.5°C), moderate ROS (reactive oxygen species) signals (H2O2 concentration 8-12 μM) are induced, activating the Nrf2 / ARE pathway and achieving selective antioxidant activity (SOD activity ↑45%).

[0059] The above description is only a preferred specific embodiment of the present invention, but the scope of protection of the present invention is not limited thereto. Any technician familiar with the technical field, within the technical scope disclosed by the present invention, who makes equivalent replacements or changes based on the technical solution and inventive concept of the present invention, should be covered by the scope of protection of the present invention.

Claims

1. A heat-oxygen synergistic internal diathermy chamber, characterized by: include: Front fuselage (1); A silo (2) is an upwardly arched arc-shaped plate, and a thermal therapy chamber (3) is formed between the silo (2) and the front fuselage (1); a rear fuselage (4) docked on the front fuselage (1); a bed board (5) slidably connected to the top of the front fuselage (1) and the top of the rear fuselage (4), and the bed board (5) extends into the thermotherapy chamber (3); A heater (6) is installed in the front fuselage (1), and a heating portion (7) connected to the heater (6) is installed in the compartment (2); an oxygen concentrator (8) mounted in the rear fuselage (4); an oxygen intake pipe (9) fixedly connected to the rear fuselage (4), and the oxygen intake pipe (9) is connected to the oxygen generator (8); A controller (10) is mounted on the warehouse body (2).

2. The heat-oxygen coordinated internal diathermy chamber according to claim 1, characterized in that: The oxygen inhalation tube (9) is connected to an antioxidant nasal oxygen tube containing a selenized chitosan coating.

3. The heat-oxygen coordinated internal diathermy chamber according to claim 2, characterized in that: The controller (10) is integrated with an AI health advisor model.

4. The heat-oxygen coordinated internal diathermy chamber according to claim 3, characterized in that: The oxygen curtain flow rate of the oxygen generator (8) is 1.2m / s±0.1, and the infrared radiation flux density of the heating part (7) is 50mW / cm 2 .

5. The heat-oxygen coordinated internal diathermy chamber according to claim 4, characterized in that: The heating part (7) adopts a gradient infrared radiation array.

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