TW201427735A - Blood circulation and oxygen supply device - Google Patents

Abstract

The present invention provides a blood circulation and oxygen supply device (1), which supplies an oxygen-contained gas having oxygen content higher than the surrounding atmosphere (A) directly to a user for inhalation and to simultaneously enhance blood circulation of the user. The system comprises: an oxygen-contained gas source (11), which supplies the oxygen-contained gas; a gas conduit (21) that is connected to the oxygen-contained gas source; a respirator (31) that is connected to the gas conduit to supply the oxygen-contained gas directly to the user for inhalation; a heat source (41), which is arranged in the blood circulation and oxygen supply device for supplying energy for heating; and a heating section (51) that is connected to the heat source and applies heating to the body of the user to enhance circulation of blood.

Description

Blood circulation oxygen supply device

The present invention relates to a blood circulation oxygen supply device, and more particularly to a blood circulation oxygen supply device that heats a user's body while supplying oxygen, promotes blood circulation, and thereby improves oxygen supply efficiency.

The main function of the oxygen supply device is to provide the user with an oxygen-containing gas (hereinafter referred to as an oxygen-containing gas) having a higher oxygen concentration than the surrounding atmosphere for medical or health care purposes. Generally, the concentration of oxygen in the atmosphere is about 20%. If the concentration of oxygen is increased to about 25% to 50%, it will help the user to relieve fatigue and release pressure after intense exercise. Higher oxygen concentrations, such as more than 70%, or pure oxygen, are also commonly used in medical or health care such as respiratory diseases.

As for the method of supplying oxygen-containing gas to a general oxygen supply device, the following are common: (1) Pressure swing adsorption (PSA), which extracts oxygen from the surrounding atmosphere, and absorbs and filters the surrounding atmosphere by a molecular sieve mechanism in the oxygen supply device. The nitrogen in the process is used to increase the oxygen concentration; (2) the electrolysis method is to electrolyze liquid water to produce hydrogen and oxygen, and to take the oxygen portion thereof; (3) to store the oxygen in a liquid state. Store in a cylinder or tank and release it when necessary.

As described above, an oxygen supply device, such as an oxygen generator, which is generally used for medical or health care, is focused on providing a gas having a high oxygen concentration and a high gas to improve the efficiency of oxygen absorption by a user.

However, most of the above oxygen supply devices are designed to be used at fixed points. That is, most When the user uses the oxygen supply device, the user stays in a fixed position and is in a calm state. At this time, since the user remains calm, the blood circulation tends to be smooth and slow.

It is well known that oxygen inhaled by a user is carried to the whole body by blood circulation. In this way, even if the oxygen supply device supplies a gas having a high oxygen concentration for the user to inhale, the blood circulation is gentle, and the benefit of the oxygen supply device cannot be fully utilized.

Therefore, if the gas having a higher oxygen concentration can be directly supplied to the user and the blood circulation of the user body is promoted, the efficiency of the oxygen supply device can be improved.

Therefore, an object of the present invention is to provide an oxygen supply device capable of not only directly supplying a gas having a high oxygen concentration to a user, but also promoting the blood circulation by heating the body of the user. Give full play to the benefits of oxygen supply devices.

In order to achieve the above object, a first aspect of the present invention is a blood circulation oxygen supply device for directly supplying an oxygen-containing gas having a higher oxygen concentration than the surrounding atmosphere to a user, while promoting the blood of the user. Circulating, the system comprising: an oxygen-containing gas source for supplying the oxygen-containing gas; a gas conduit connected to the oxygen-containing gas source; and a respirator coupled to the gas conduit to directly supply the oxygen-containing gas Inhaling to the user; a heating source disposed in the blood circulation oxygen supply device to provide energy for heating; and a heating portion coupled to the heating source and heating the user's body to promote blood circulation .

According to a second aspect of the present invention, in the first embodiment of the blood circulation oxygen supply device, the oxygen-containing gas source is a pressure swing adsorption type oxygen generator.

According to a third aspect of the present invention, in the first embodiment of the blood circulation oxygen supply device, the heating portion is formed with an ergonomic shape portion for the user to place the limb.

According to a fourth aspect of the present invention, in the third aspect of the blood circulation oxygen supply device, the limb is a palm or a sole of the foot, and the ergonomic shape portion is in close contact with the palm of the palm or the sole of the foot.

According to a fifth aspect of the present invention, in the first embodiment of the blood circulation oxygen supply device, the heating portion is separately provided and connected to the heating source through a wire.

According to a sixth aspect of the present invention, in a fifth aspect of the blood circulation oxygen supply device, the heating unit has two or more heating portions, and the heating portions are connected to each other through a wire or are respectively associated with the heating source. connection.

According to a seventh aspect of the present invention, in the first aspect of the blood circulation oxygen supply device, the heating source further includes: a control unit that controls an output of the heating source; and the control unit is configured according to a preset temperature The set value controls the output of the heat source.

According to an eighth aspect of the present invention, in the venous blood circulation oxygen supply device of the seventh aspect, the heating portion further includes: a temperature sensor connected to the control portion by a signal line, and an output temperature a signal; and the control unit controls the output of the heating source according to the preset temperature setting value and the temperature signal.

According to a ninth aspect of the present invention, in the blood circulation oxygen supply device of the first to eighth aspects, the device further includes: a potential balance device for balancing the potential of the user's body.

According to the present invention, the oxygen supply device can directly supply the oxygen-containing gas having a higher oxygen concentration than the surrounding atmosphere to the user, and heat the user's body to promote blood circulation of the user's body, thereby improving oxygen supply. The benefits of the device.

1, 1A‧‧‧ qi and blood circulation oxygen supply device

2‧‧‧Users

10‧‧‧Vascular circulation oxygen supply device body

11‧‧‧Oxygen gas source

13‧‧‧air inlet

15‧‧‧Molecular sieve

17‧‧‧ gas supply port

21‧‧‧ gas conduit

23‧‧‧End

25‧‧‧The other end

31‧‧‧Respirator

33‧‧‧Respirator body

35‧‧‧ gas inlet

37‧‧‧ gas export

39‧‧‧ catheter

41‧‧‧heat source

43‧‧‧Power Supply Department

45‧‧‧Output terminal

47‧‧‧Control Department

49‧‧‧Enter

51, 51A, 51A1, 51A2‧‧‧ heating department

53, 53A1, 53A2‧‧‧ heating body

55, 55A, 55A1, 55A2‧‧‧ wires

57‧‧‧ ergonomic shape part

58‧‧‧temperature sensor

59‧‧‧Signal line

61‧‧‧potentiometric device

63‧‧‧Electrical components

65‧‧‧ Grounding plate

67‧‧‧Wire

A‧‧‧The surrounding atmosphere

O‧‧‧Oxygen gas

V‧‧‧ potential

Fig. 1 is a view showing the configuration of a first embodiment of the present invention.

2A to 2E show a part of the configuration in the first embodiment.

Fig. 3 is a view showing the configuration of a modification of the first embodiment.

Fig. 4 is a view showing the configuration of a second embodiment of the present invention.

5A and 5B show the configuration of a modification of the second embodiment.

Fig. 6 is a view showing the configuration of a third embodiment of the present invention.

(Best form of implementing the invention)

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS Hereinafter, preferred embodiments of the present invention will be described with reference to the above additional drawings.

<Example 1>

Fig. 1 is a view showing the configuration of a first embodiment of the present invention.

As shown in the figure, the blood circulation oxygen supply device 1 of the embodiment 1 of the present invention is packaged. The oxygen-containing gas source 11, the gas conduit 21, the respirator 31, the heat source 41, and the heating portion 51 are included.

Fig. 2 shows a partial configuration of the embodiment 1, and Fig. 2A shows the configuration of the oxygen-containing gas source 11.

An oxygen-containing gas source 11 is provided for providing an oxygen-containing gas O having an oxygen concentration higher than that of the surrounding atmosphere A. In the first embodiment, the oxygen-containing gas source 11 is a pressure swing adsorption (PSA) oxygen generator, and an oxygen-containing gas O having an oxygen concentration of about 33% to 42% is provided.

The oxygen-containing gas source 11 includes an inlet port 13, a molecular sieve 15, and an air supply port 17. The oxygen-containing gas source 11 is sucked into the ambient atmosphere A from the intake port 13, and a part of the nitrogen in the atmosphere A is filtered out through the molecular sieve 15 to increase the oxygen-containing concentration, and the oxygen-containing gas O having an increased oxygen concentration is supplied from the gas supply port 17. .

Fig. 2B shows the configuration of the gas conduit 21 in the first embodiment.

The gas conduit 21 is a hollow tubular body through which the oxygen-containing gas O can flow. One end 23 of the gas conduit 21 is connected to the gas supply port 17 of the oxygen-containing gas source 11 (Fig. 2A), and the other end 25 is connected to the gas inlet 35 of the respirator 31 (Fig. 2C) which will be described later.

Fig. 2C shows the configuration of the respirator 31 in the first embodiment from the cross section.

The respirator 31 is for allowing the user 2 to directly inhale the oxygen-containing gas O. In the first embodiment, the respirator 31 is designed as a nose piece type and can be fixed to the mouth and/or the nose of the user 2, and includes a respirator body 33, a gas inlet 35, a gas outlet 37, and an inner conduit 39.

The respirator body 33 is provided with a gas inlet 35, a gas outlet 37, and an internal conduit 39.

The gas inlet 35 is connected to one end 25 of the aforementioned gas conduit 21 for the oxygen-containing gas O to flow into the respirator 31.

The gas outlet 37 can be connected to the mouth and/or nose of the user 2 to allow the user 2 to directly inhale the oxygen-containing gas O. In Embodiment 1, the gas outlet 37 can be placed in the nostrils of the user 2.

The inner conduit 39 is disposed within the respirator body 33 and connects the gas inlet 35 to the gas outlet 37. In Embodiment 1, the inner catheter 39 is formed by a hollow portion of the body 33 of the respiratory body.

2D shows the configuration of the heat source 41.

A heating source 41 is provided for providing energy for heating. In the embodiment 1, heating Source 41 is a power supply and shares a source of electrical power with oxygen-containing gas source 11.

The heating source 41 includes a power supply unit 43, an output terminal 45, and a control unit 47.

In the first embodiment, the power supply unit 43 is provided in the blood circulation oxygen supply device 1, and is connected to the oxygen-containing gas source 11, and shares the power source with the oxygen-containing gas source 11, and is connected to the control unit 47, and is received by the control unit. 47 controlled. The output terminal 45 is provided on the power supply unit 43 for outputting power of the power supply unit 43. The control unit 47 is connected to the power supply unit 43 and controls the electric power output from the power supply unit 43.

The heating source 41 may also be built in the configuration of the oxygen-containing gas source 11.

FIG. 2E shows the configuration of the heating unit 51.

The heating unit 51 includes a heating body 53 and a wire 55.

The heating body 53 is connected to the output terminal 45 of the heating source 41 via the wire 55, and receives electric power from the power supply unit 43 to perform heating. At this time, the control unit 47 controls the electric power output to the heating body 53 based on the set value of the temperature set in advance, and maintains the heating unit 51 at a predetermined temperature.

The predetermined temperature is a temperature close to or higher than the body surface temperature of the body of the user 2, which can effectively promote blood circulation without causing skin burns. For example, it can be set to any temperature between 35 and 50 ° C, and it should be set at 37 ° C or higher, and preferably at 45 ° C or lower.

As shown in the figure, in the first embodiment, the heating portion 51 is provided on the upper portion of the blood circulation oxygen supply device 1, and the outer peripheral surface thereof is formed with two ergonomic shape portions 57, such as convex hemispheres, and the user. 2 the body makes contact. The heating body 53 is provided to heat the ergonomic shape portion 57.

The operation flow of the blood circulation oxygen supply device 1 of the first embodiment will be described below.

First, the respirator 31 is fixed to the corresponding body part of the user 2, and the gas outlet 37 is connected to the user 2. Next, the user 2 places the limb on the ergonomic shape portion 57 on the heating portion 51, for example, by placing the palm or the sole of the foot thereon. At this time, due to the ergonomic design, the ergonomic shape can be partially adhered to the limb, such as the palm of the palm or the sole of the foot, to obtain a better heating effect.

At the same time, the control unit 47 of the heating source 41 controls the power supply unit 43 to output, and transmits the electric power to the heating body 53 via the output terminal 45 and the wire 55. Heating body 53 receives electricity The electric power output from the source supply unit 43 is heated, and the temperature of the ergonomic shape portion 57 in contact with the body of the user 2 in the heating unit 51 is increased, and the body of the user 2 is further heated.

Then, the ambient air A is introduced into the oxygen-containing gas source 11 via the gas inlet 13, and a part of the nitrogen gas is filtered out through the molecular sieve 15, and the oxygen-containing gas O having an oxygen concentration is increased and supplied from the gas supply port 17.

The oxygen-containing gas O supplied from the gas supply port 17 flows in from the one end 23 of the gas conduit 21, passes through the oxygen-containing conduit 21, and reaches the other end 25.

The oxygen-containing gas O flows from the other end 25 of the gas conduit 21 into the respirator 31 via the gas inlet 35, and finally allows the user 2 to directly inhale from the gas outlet 37 via the internal conduit 39 in the respirator body.

At this time, since the heating unit 51 heats the body of the user 2 to promote blood circulation of the user 2, and allows the user 2 to directly inhale the oxygen-containing gas O from the gas outlet 37, the blood circulation oxygen supply device can be effectively improved. The overall benefit of 1.

Fig. 3 is a view showing the configuration of a modification of the first embodiment.

For example, the input terminal 49 may be provided in the control unit 47, and the temperature sensor 58 and the signal line 59 may be provided in the heating unit 51. The temperature sensor 58 senses the temperature of the heating portion 51 and outputs a temperature signal. The signal line 59 is connected to the temperature sensor 58 and the input terminal 49 of the control unit 47, and the temperature signal output from the temperature sensor 58 is input to the control unit 47. At this time, the control unit 47 controls the output electric power based on the preset temperature setting value and the temperature signal input from the input terminal 49, and maintains the heating unit 51 at a predetermined temperature. In addition, the signal line 59 and the wire 55 may also be formed in one body.

According to Embodiment 1 of the present invention and its modification, since oxygen-containing gas having a higher oxygen concentration than the surrounding atmosphere can be directly supplied to the user while inhaling, the blood circulation of the user's body can be promoted, thereby enhancing oxygen supply. The overall benefits of the device.

<Example 2>

Fig. 4 is a view showing the configuration of a second embodiment of the present invention.

In the pulverized blood circulation oxygen supply device 1A of the second embodiment of the present invention, the blood circulation circulatory oxygen supply device 1 is changed to the heating unit 51A that is independently provided and the ventilator circulatory oxygen supply device body 10, and other configurations are Both are the same as in the foregoing Embodiment 1. Heating part 51A and blood circulation oxygen supply The heating source 41 in which the body 10 is placed is also connected by a wire 55.

5A and 5B show the configuration of a modification of the second embodiment.

In the modification of the second embodiment, as shown in FIG. 5A, the two ergonomic shape portions 57 of the heating portion 51A may be replaced by the heating portion 51A1 and the heating portion 51A2 which are separately provided, and each has a heating body. 53A1 and 53A2 are connected to each other via a wire 55A or, as shown in Fig. 5B, respectively, through a wire 55A1, 55A2, to a heat source 41 of the blood circulation oxygen supply device body 10. Further, the number of the heating portions that are independently provided separately is not limited to two, and may be three or more.

The operational flow of the embodiment 2 and its modifications is identical to that of the first embodiment.

According to the second embodiment of the present invention and its modification, since the heating unit and the blood circulation oxygen supply device are separately and independently separated from each other, the setting configuration of the blood circulation oxygen supply device can be made more free and more convenient to use. .

<Example 3>

Fig. 6 is a view showing the configuration of a third embodiment of the present invention.

In the third embodiment of the present invention, the potential balancing device 61 is added to the configuration of the first embodiment.

The potential balance device 61 includes a conductive member 63, a ground plate 65, and a wire 67. Among them, the conductive member 63 is composed of a conductor having good conductivity and is provided on the surface of the ergonomic shape portion 57. Specifically, the conductive member 63 may be made of a metal or the like. Among them, a material that is less susceptible to the human body 2, such as gold, silver, platinum, titanium, or an alloy thereof, is preferable. The grounding plate 65 is provided in the blood circulation oxygen supply device 1, and the wire 67 is integrated with the wire 55. The conductive member 63 and the ground plate 65 are connected by a wire 67.

The ground plate 65 is made of a large volume of a conductor having good electrical conductivity, and the potential V of the body of the user 2 is balanced by the potential balance effect of the large volume conductor. The ground plate 65 can also be electrically grounded externally. At this time, in terms of safety considerations, it is preferable to set the security protection by means of a Zener diode or the like.

The operation flow of Embodiment 3 is added to the operational flow of Embodiment 1 by adding the operational flow of the potential balancing device 61.

Wherein, when the user 2 places the limb on the ergonomic shape portion 57 of the heating portion 51, the potential V of the body of the user 2 is transmitted through the ergonomic shape portion 57. The conductive member 63 on the surface is conducted to the ground plate 65 provided in the blood circulation oxygen supply device 1 via the wire 67, thereby maintaining the potential balance of the body of the user 2.

According to the third embodiment of the present invention, the oxygen-containing gas having a higher oxygen concentration than the surrounding atmosphere can be directly supplied to the user for inhalation while maintaining the balance of the potential of the user's body, and the blood circulation can be promoted to fully exert the health benefit. .

(industrial use)

The invention can be applied to various medical and health care devices which directly supply oxygen-containing gas having a higher oxygen concentration than the surrounding atmosphere to the user.

1‧‧‧Veous blood circulation oxygen supply device

2‧‧‧Users

11‧‧‧Oxygen gas source

21‧‧‧ gas conduit

31‧‧‧Respirator

41‧‧‧heat source

51‧‧‧heating department

A‧‧‧The surrounding atmosphere

O‧‧‧Oxygen gas

Claims (9)

A blood circulation oxygen supply device for directly supplying an oxygen-containing gas having a higher oxygen concentration than the surrounding atmosphere to a user for inhalation while promoting blood circulation of the user, the system comprising: an oxygen-containing gas source, Providing the oxygen-containing gas; a gas conduit connected to the oxygen-containing gas source; a respirator coupled to the gas conduit to provide the oxygen-containing gas directly to the user for inhalation; a heating source disposed at the The blood circulation oxygen supply device provides energy for heating; and a heating portion is connected to the heat source to heat the body of the user to promote blood circulation. The blood circulation oxygen supply device of claim 1, wherein the oxygen-containing gas source is a pressure swing adsorption oxygen generator. The blood circulation oxygen supply device of claim 1, wherein the heating portion is formed with an ergonomic shape portion for the user to place the limb. The blood circulation oxygen supply device of claim 3, wherein the limb is a palm or a sole of the foot, and the ergonomic shape portion is closely attached to the palm of the palm or the sole of the foot. The blood circulation oxygen supply device according to claim 1, wherein the heating portion is separately separated and connected to the heat source through a wire. The blood circulation oxygen supply device according to claim 5, which has two or more of the heating portions, and the heating portions are connected to each other through a wire or are connected to the heating source. The blood circulation circulating oxygen supply device of claim 1, wherein the heating source further comprises: a control unit that controls an output of the heating source; and the control unit controls the heating according to a preset temperature setting value. The output of the source. The blood circulation circulating oxygen supply device of claim 7, wherein the heating portion further comprises: a temperature sensor connected to the control portion by a signal line to output a temperature signal; and the control portion is based on The preset temperature setting value and the temperature signal control the output of the heating source. The blood circulation oxygen supply device according to any one of claims 1 to 8, further comprising: a potential balance device for balancing the potential of the user's body.