WO2012026740A2 - Intake fluid heating and cooling apparatus, and intake fluid supply system having same - Google Patents

Abstract

An intake fluid heating and cooling apparatus according to the present invention comprises: a first thermoelectric module having at least one first thermoelectric module heated on one surface and cooled on the alternate surface when current is applied in one direction to the first thermoelectric module; a second thermoelectric module having at least one second thermoelectric module cooled on one surface that is in alignment with the one surface of the first thermoelectric module, and heated on the alternate surface that is in alignment with the alternate surface of the first thermoelectric module when current is applied in one direction to the second thermoelectric module; a control unit for selectively applying current in one direction to the first or the second thermoelectric module to selectively operate the first or the second thermoelectric module; and a base unit for supporting the first and second thermoelectric modules by having the alternate surfaces of the first and second thermoelectric modules attached at a certain distances apart from one another, such that the one surfaces of the first and second thermoelectric modules are oriented outward.

Description

Suction fluid heating and cooling device and suction fluid supply system having same

The present invention relates to an inhalation fluid supply system for supplying an inhalation fluid such as oxygen and / or anesthetic gas to a patient during various operations such as intensive care, thoracotomy, cardiac surgery, neurosurgery, and more specifically, using a thermoelectric module. And a suction fluid heating and cooling device for selectively maintaining the patient's body temperature by selectively heating or cooling an inhalation fluid such as an oxygen gas and / or anesthesia gas supplied to an intensive care patient or a surgical patient. A suction fluid supply system.

In general, the human body usually has the ability to maintain temperatures between 36.5 and 37.1 ° C. However, a patient whose resistance is poor due to a disease or the like, in particular, a intensive care patient or a patient during various operations such as thoracotomy, lung disease, organ transplantation, etc., may have a high or low body temperature due to factors such as external temperature. As such, when the body temperature of the intensive care unit or the surgical patient is too high or low, immunity against diseases is rapidly decreased, and thus it is necessary to forcibly maintain a constant temperature until the ability to maintain a constant body temperature by itself. In addition, during brain surgery, lowering the body temperature is good after surgery, and it is better to use warm gas when raising the body temperature.

Currently, the method of controlling the body temperature of a patient generally uses a heated heater in the intake hose of the respiratory gas supply system that supplies oxygen and / or anesthesia gas into the patient's lung, and warms the oxygen and / or the patient's lung. Or there is a method of increasing the body temperature of the patient by supplying anesthesia gas. However, since this method does not have a device to lower the body temperature of the patient, it is cumbersome to lay down a blanket for lowering the temperature.

In order to solve this problem, recently, a method of lowering the body temperature of a patient by supplying a cooled oxygen and / or anesthetic gas to a patient by installing a heat exchanger using a refrigerant in a respiratory gas supply system has been proposed. However, since this method requires a separate mechanical operation unit for driving the refrigerant, there are disadvantages in that noise and vibration are generated and the installation space is increased. In addition, since a refrigerant is used, there is a problem of polluting the environment.

Another way to control a patient's body temperature is to control the patient's body temperature by administering a drug such as a body warmer or antipyretic. However, since this method takes a certain time until the drug efficacy occurs, it may be restricted in emergency situations such as during surgery, and it may be used post-mortem according to the temperature of the patient. There is no problem.

The present invention has been made to solve the problems described above, an object of the present invention is to selectively heat or cool the suction fluid, such as oxygen gas and / or anesthesia gas supplied to the intensive or surgical patient using a thermoelectric module The present invention provides an inhalation fluid heating and cooling device and an inhalation fluid supply system having the same, by which the body temperature of the patient can be properly maintained while being supplied to the patient.

According to an embodiment of the present invention for achieving the above object, the present invention, the first thermoelectric module having at least one first thermoelectric element is heated when one side of the current is applied, the other side is cooled; A second thermoelectric element having at least one second thermoelectric element in which one surface oriented equal to one surface of the first thermoelectric element is cooled and the other surface oriented in the same direction as the other surface of the first thermoelectric element is heated when a current in one direction is applied; module; A control unit for selectively operating the first thermoelectric module or the second thermoelectric module by selectively applying a current in one direction to the first thermoelectric module or the second thermoelectric module; And a base part supporting the first and second thermoelectric elements by attaching the other surfaces of the first and second thermoelectric elements at regular intervals so that one surfaces of the first and second thermoelectric elements face the outside. And a cooling device.

In this case, the first thermoelectric module may further include a first thermal conductive plate attached to one surface of the first thermoelectric element, and the second thermoelectric module may further include a second thermal conductive plate attached to one surface of the second thermoelectric element.

The control unit includes: a first control unit electrically connected to the first thermoelectric module to control the first thermoelectric module, the first control unit having a first receiver configured to receive a first control signal for controlling the first thermoelectric module; A second control unit connected to the second thermoelectric module to control the second thermoelectric module, the second control unit having a second receiver receiving a second control signal for controlling the second thermoelectric module; And a control box including first and second transmitters for transmitting the first and second control signals to the first and second receivers according to the temperature measured by the temperature sensor attached to the patient or the base unit.

The base portion may be formed of a flexible insulating material.

In addition, the base portion may include a fixing portion for removably fixing the base portion to the transport passage for transporting the suction fluid. The transfer passage may be a transfer hose, and the fixing portion may include a female adhesive pad formed on one surface of the base portion and a male adhesive pad formed on the other surface of the base portion to correspond to the female adhesive pad.

Optionally, the base portion may be inserted into and fixed to a conveying passage for conveying the suction fluid.

According to another embodiment of the invention, the present invention, the thermoelectric module having at least one thermoelectric element optionally heated on one side and the other side is cooled or the other side is cooled and the other side is heated according to the supply direction of the current; A first control unit electrically connected to the thermoelectric module to control the thermoelectric module, the first control unit having a receiver receiving a control signal for controlling the thermoelectric module, and supply of current applied to the thermoelectric element according to the temperature of the patient measured by the temperature sensor A control unit including a control box having a transmitter for transmitting a control signal to a receiver to change direction or cut off supply of current; And a base part supporting the thermoelectric element by attaching the other surface of the thermoelectric element so that one surface of the thermoelectric element is directed to the outside.

In this case, the thermoelectric module may further include a first thermal conductive plate attached to one surface of the thermoelectric element.

The base portion may be formed of a flexible insulating material.

In addition, the base portion may include a fixing portion for fixing the base portion to be detachable to the transfer passage for transferring the suction fluid. At this time, the transfer passage is a transfer hose, the fixing portion may include a female adhesive pad formed on one surface of the base portion, and a male adhesive pad formed to correspond to the female adhesive pad on the other surface of the base portion.

Optionally, the base portion may be inserted into and fixed to a conveying passage for conveying the suction fluid.

According to still another embodiment of the present invention, there is provided a suction fluid supply system for supplying a suction fluid to a required part of a body, comprising: a fluid source for storing the suction fluid; A transfer passage for transferring the suction fluid to a required part of the body; And a suction fluid heating and cooling device as described above attached to the transfer passage and selectively heating or cooling the transfer passage according to the body temperature measured by the body.

In this case, the suction fluid may include an oxygen gas and / or an anesthetic gas.

As described above, the suction fluid heating and cooling device and the suction fluid supply system having the same according to the present invention are provided with oxygen gas and / or anesthetic gas supplied to the intensive care unit or the surgical patient using a thermoelectric module operated within 2 seconds. The same suction fluid may be selectively heated or cooled to maintain the proper body temperature of the patient. Therefore, compared with the existing cooling apparatus using a refrigerant to contaminate the environment and having a mechanical operating portion, the operating time is fast, environmentally friendly, no noise and vibration, there is an effect that the installation space is small.

In addition, the suction fluid heating and cooling device and the suction fluid supply system having the same according to the present invention is a heat conduction capable of uniformly and widely transferring heat generated in the thermoelectric element to a transfer passage requiring heating or cooling, for example, a transfer hose. Since the plate is provided, the transfer hose and the oxygen gas and / or anesthetic gas passing therethrough can be heated or cooled more efficiently.

In addition, the suction fluid heating and cooling device and the suction fluid supply system having the same according to the present invention wirelessly transmits a control signal to the control panel of the first and / or second control unit having a receiver in a control box having a transmitter. Since the thermoelectric module can be controlled, a complicated connection line is unnecessary between the control box and the control board, and thus, the structure, installation, and management of the device are simplified.

In addition, the suction fluid heating and cooling device and the suction fluid supply system having the same according to the present invention includes a transfer passage for transferring the suction fluid, for example, a fixing part for fixing the base portion to the transfer hose to be detachable When heating or cooling is required for the transfer hose, it can be easily installed and used in the transfer hose and can be easily removed from the transfer hose when it is unnecessary. Therefore, the suction fluid heating and cooling device and the suction fluid supply system having the same according to the present invention can be used by simply applying to all the transfer hoses currently used. have.

1 is a conceptual diagram schematically illustrating a suction fluid supply system to which a suction fluid heating and cooling device is applied according to an embodiment of the present invention;

FIG. 2 is a schematic plan view illustrating the base part of the suction fluid heating and cooling device shown in FIG. 1 in an unfolded state;

3A and 3B are side cross-sectional views illustrating structures of a heating thermoelectric element of a first thermoelectric module and a cooling thermoelectric element of a second thermoelectric module of the suction fluid heating and cooling device shown in FIG. 2;

4 is a plan view illustrating a control box of the suction fluid heating and cooling device shown in FIG. 1;

Figure 5 is a photograph illustrating a state in which the base portion of the suction fluid heating and cooling device shown in Figure 1 is attached to the transfer hose,

6a to 6c are perspective views illustrating modifications of the base portion of the suction fluid heating and cooling device shown in FIG.

7 is a schematic plan view illustrating a modified example of the base portion of the suction fluid heating and cooling device shown in FIG. 1 in an unfolded state;

8 is a conceptual diagram schematically illustrating a suction fluid supply system to which a suction fluid heating and cooling device is applied according to another embodiment of the present invention; and

9 is a schematic plan view illustrating the base portion of the suction fluid heating and cooling device shown in FIG. 8 in an unfolded state;

10 is a conceptual diagram schematically illustrating a suction fluid supply system to which a suction fluid heating and cooling device is applied according to another embodiment of the present invention;

FIG. 11 is a schematic plan view illustrating the base part of the suction fluid heating and cooling device shown in FIG. 10 in an unfolded state;

FIG. 12 is a plan view illustrating a connector configuring the suction fluid heating and cooling device of FIG. 11.

Hereinafter, a suction fluid heating and cooling device and a suction fluid supply system having the same according to embodiments of the present invention will be described in detail with reference to the accompanying drawings.

First, referring to FIG. 1, a suction fluid supply system 100 to which a suction fluid heating and cooling device 10 according to an embodiment of the present invention is applied is schematically illustrated.

The suction fluid supply system 100 is for supplying a suction fluid such as oxygen and / or anesthesia gas to a critical patient, or a patient during various operations such as thoracotomy, cardiac surgery, neurosurgery surgery, a fluid source 11, a transport passage 14, and a suction fluid heating and cooling device (10).

In addition, a plurality of gas temperature measuring temperature sensors 70 are selectively mounted on the suction fluid supply system 100, and the gas temperature measuring temperature sensor 70 is a suction fluid heating and cooling device 10 into which gas is introduced. The first gas temperature measurement temperature sensor (70a) is mounted, and the second gas temperature measurement temperature sensor (70b) is mounted on the suction fluid heating and cooling device 10 from which gas is discharged, and enters the patient's mouth. The third gas temperature measuring temperature sensor 70c may be selectively mounted at the front end.

In addition, the transfer passage 14 is not only a temperature sensor 80 may be selectively mounted, but also a temperature sensor (with a controller or a circulator) may be selectively mounted to measure patient body temperature.

Fluid source 11 stores oxygen and / or anesthetic gas. In this embodiment, the fluid source 11 may include an oxygen tank 12 for storing oxygen at a constant pressure, and / or an anesthetic gas tank 15 containing an anesthetic gas.

The transfer passage 14 transfers oxygen and / or anesthesia gas into the lungs through the necessary parts of the body, namely, the nose and / or the mouth, and is arranged to connect between the fluid source 11 and the nose and / or the mouth. In this embodiment, the transfer passage 14 may be composed of a transfer hose 16, such as a corrugated or non-wrinkle tube.

The suction fluid heating and cooling device 10 selectively heats or cools the transfer hose 16 of the transfer passage 14 according to the body temperature of the patient, and is attached to the transfer hose 16 of the transfer passage 14.

Referring to FIG. 2, the suction fluid heating and cooling device 10 includes a first thermoelectric module 18, a second thermoelectric module 20, a controller 22, and a base part 24.

The first thermoelectric module 18 is for heating the transfer hose 16 and includes a plurality of heating thermoelectric elements 25, 26, 27, and 28. In the present embodiment, the plurality of heating thermoelectric elements are composed of the first to fourth heating thermoelectric elements 25, 26, 27, 28. The first to second heating thermoelectric elements 25, 26, 27, and 28 may be disposed up and down with the first to fourth cooling thermoelectric elements 29, 30, 31, and 32 of the second thermoelectric module 20, which will be described later. 2 basis) are arranged alternately two. That is, the first and second heating thermoelectric elements 25 and 26 and the third and fourth heating thermoelectric elements 27 and 28 may be the first and second cooling thermoelectric elements 29 and 30 and the third and fourth cooling elements. The thermoelectric elements 31 and 32 are alternately arranged in the vertical direction.

As shown in FIG. 3A, each heating thermoelectric element 25, 26, 27, or 28 has a first plate 33, a second plate 34 facing the first plate 33, and a first plate. And a semiconductor layer 35 interposed between the second plates 33 and 34. The first power supply 37 of the first control substrate 36 is connected to the semiconductor layer 35 to supply current in one direction. As a result, a so-called Peltier effect occurs. For example, when a current in one direction is applied to the semiconductor layer 35, the semiconductor layer 35 cools the second plate 34 and absorbs heat absorbed from the second plate 34. Transfer to the first plate 33 to heat. In this embodiment, each heating thermoelectric element 25, 26, 27, or 28 is formed in a square shape (for example, a size of 10 mm in width, 10 mm in length, and 4 mm in height). Optionally, each heating thermoelectric element 25, 26, 27, or 28 may be formed in another shape, for example in the form of an elongate rectangle.

The first thermoelectric module 18 is configured to uniformly and widely transfer heat generated from the first plate 33 of the heating thermoelectric elements 25, 26, 27, and 28 to the transfer hose 16 requiring heating. Silver further comprises first and second heating conducting plates 38, 39 (shown in dashed lines for ease of illustration) attached to the first plate 33 of the heating thermocouples 25, 26, 27, 28. can do. The first heating conducting plate 38 is attached on the first plates 33 of the first and second heating thermoelectric elements 25 and 26, and the second heating conducting plate 39 is the third and fourth heating thermoelectrics. It is attached on the first plates 33 of the elements 27, 28. The first and second heating conductive plates 38 and 39 may be formed in an elongated rectangular shape by a metal such as stainless steel (sus), respectively. Therefore, the heat generated in the first plate 33 of the heating thermoelectric elements 25, 26, 27, 28 is transferred to the first and second heating conductive plates by the fixing part 60 of the base part 24, which will be described later. It can be efficiently delivered to the transfer hose 16 which is in contact and fixed to (38, 39) and oxygen gas and / or anesthetic gas passing therethrough.

The second thermoelectric module 20 is for cooling the transfer hose 16 and is composed of a plurality of cooling thermoelectric elements 29, 30, 31, and 32. In the present embodiment, the plurality of cooling thermoelectric elements are composed of first to fourth cooling thermoelectric elements 29, 30, 31, and 32. As described above, the first to fourth cooling thermoelectric elements 29, 30, 31, and 32 are alternately disposed with the first to fourth heating thermoelectric elements 25, 26, 27, and 28.

As shown in FIG. 3B, each of the cooling thermoelectric elements 29, 30, 31, and 32 includes a first plate 33 ′, a second plate 34 ′ facing the first plate 33 ′, And a semiconductor layer 35 'interposed between the first and second plates 33, 34'. The second power supply 41 of the second control substrate 40 is connected to the semiconductor layer 35 ′ to supply current in one direction. As a result, the Peltier effect occurs. For example, when a current in one direction is applied to the semiconductor layer 35 ', the semiconductor layer 35' cools the first plate 33 'and absorbs heat absorbed from the first plate 33'. Transfer to plate 34 '. In the present embodiment, each of the cooling thermoelements 29, 30, 31, or 32 has a rectangular shape (for example, 10 mm in width, 10 mm in height, 4 mm in height) as with the heating thermoelectric elements 25, 26, 27, 28. Size). Optionally, each of the cooling thermoelements 29, 30, 31, or 32 may be formed in another shape, for example in the form of an elongate rectangle.

The second thermoelectric module 20 is configured to uniformly and widely transfer the cold air of the first plate 33 'of the cooling thermoelectric elements 29, 30, 31, and 32 to the transfer hose 16 requiring cooling. Like the first thermoelectric module 18, the first and second cooling conducting plates 42 and 43 attached to the first plate 33 ′ of the cooling thermoelectric elements 29, 30, 31, and 32; It may further include a dashed line) to. Each of the first and second cooling conductive plates 42 and 43 may be formed in an elongated rectangular shape by a metal such as stainless steel (sus). Accordingly, the cool air generated in the first plate 33 ′ of the cooling thermoelectric elements 29, 30, 31, and 32 may be formed by the fixing part 60 of the base part 24. 42 and 43, it can be efficiently delivered to the transfer hose 16 and the oxygen gas and / or anesthetic gas passing through it.

The controller 22 selectively operates the first thermoelectric module 18 and the second thermoelectric module 20, and includes a first controller 44, a second controller 45, and a control box 46. .

The first controller 44 is for controlling the operation of the first to fourth heating thermoelectric elements 25, 26, 27, 28 of the first thermoelectric module 18 to heat the transfer hose 16. The first control unit 36 includes a first current supply unit 37, a first receiver 47, and a first microprocessor 48. The first control substrate 36 is attached to the upper right side of the base portion 24 (to be referred to in FIG. 3), which will be described later. The first current supply unit 37 is connected in parallel with the first to fourth heating thermoelectric elements 25, 26, 27, and 28 of the first thermoelectric module 18. The first receiver 47 receives a first control signal transmitted from the first transmitter 49 of the control box 46 described later. The first current supply unit 37 applies only a current in one direction to the first to fourth heating thermoelectric elements 25, 26, 27, and 28 of the first thermoelectric module 18 under the control of the first microprocessor 48. . The first microprocessor 48 controls the operations of the first receiver 47 and the first current supply unit 37. Therefore, when the first control signal received by the first receiver 47 is an 'on' signal as described below, the first microprocessor 48 may perform first to fourth operations of the first thermoelectric module 18. First current supply unit to heat the first plate 33 of the first to fourth heating thermoelectric elements (25, 26, 27, 28) by applying a current in one direction to the heating thermoelectric elements (25, 26, 27, 28) (37) is controlled. On the contrary, if the first control signal received from the first receiver 47 is an 'off' signal as described below, the first microprocessor 48 may perform first to fourth operations of the first thermoelectric module 18. The first current supply unit 37 is configured to stop the operation of the first to fourth heating thermoelectric elements 25, 26, 27, and 28 by interrupting the supply of current to the heating thermoelectric elements 25, 26, 27, and 28. To control.

The second controller 45 is for cooling the transfer hose 16 by controlling the operations of the first to fourth cooling thermoelectric elements 29, 30, 31, and 32 of the second thermoelectric module 20. A second current supply unit 41, a second receiver 54, and a second microprocessor 55 installed in the second control substrate 40 are included. The second control substrate 40 is attached to the left side of the upper surface of the base portion 24 (see FIG. 2). The second current supply unit 41 is connected in parallel with the first to fourth cooling thermoelectric elements 29, 30, 31, and 32 of the second thermoelectric module 20. The second receiver 54 receives a second control signal transmitted from the second transmitter 50 of the control box 46. The second current supply unit 41 applies only a current in one direction to the first to fourth cooling thermoelectric elements 29, 30, 31, and 32 of the second thermoelectric module 20 under the control of the second microprocessor 55. . The second microprocessor 55 controls the operations of the second receiver 54 and the second current supply unit 41. Accordingly, when the second control signal received by the second receiver 54 is an 'on' signal as described below, the second microprocessor 55 may include the first to fourth portions of the second thermoelectric module 20. A second current is applied to the cooling thermoelectric elements 29, 30, 31, and 32 to cool the first plate 33 ′ of the first to fourth cooling thermoelectric elements 29, 30, 31, and 32. The current supply unit 41 is controlled. On the contrary, if the second control signal received by the second receiver 54 is an 'off' signal, as described below, the second microprocessor 55 may include the first to fourth portions of the second thermoelectric module 20. The second current supply unit 41 stops the operation of the first to fourth cooling thermoelectric elements 29, 30, 31, and 32 by interrupting the supply of current to the cooling thermoelectric elements 29, 30, 31, and 32. To control.

The first and second current supply units 37 and 41 of the first and second control substrates 36 and 40 configured as described above are electrically connected to an external power source 56 (see FIG. 1).

Referring back to Figure 1, the control box 46 is to remotely control the heating or cooling of the transfer hose 16 according to the patient's body temperature measured by the temperature sensor 53 attached to the patient, temperature control Section 52, first and second transmitters 49 and 50, and a third microprocessor 51;

As shown in FIG. 4, the temperature controller 52 allows the medical staff to input and set an acceptable upper limit value (eg, 37.1 ° C.) and an allowable lower limit value (eg, 36.5 ° C.) of the body temperature according to the purpose. The first and second input buttons 57 and 58 for inputting the allowable upper limit value and the allowable lower limit value, and the display window 59 are provided. Alternatively, the temperature controller 52 may be formed in a dial form (not shown) including a rotary knob and a scale plate instead of the input buttons 57 and 58 and the display window 58.

The first and second transmitters 49 and 50 are connected to the first and second receivers 47 and 54 of the first and second control boards 36 and 40 by the control of the third microprocessor 51. And first and second control signals for controlling the second thermoelectric modules 18 and 20.

The third microprocessor 51 is connected to the temperature sensor 53 attached to the patient's armpit and the like, and measures the body temperature of the patient every predetermined time, for example, every few seconds, counted by a clock (not shown). The temperature sensor 53 is controlled.

In addition, the third microprocessor 51 compares the patient's body temperature value transmitted from the temperature sensor 53 with the allowable upper limit value and the lower limit value of the body temperature set by the temperature controller 52, and then the first and second control boards. The first and second transmitters 49 and 50 are controlled to transmit the first and second control signals to the first and second receivers 47 and 54 of (36, 40).

In more detail, when the body temperature of the patient measured at a certain time in the temperature sensor 53 is received from the temperature sensor 53, the third microprocessor 51 is the temperature control unit 52 of the received temperature of the patient Compared with the allowable upper limit set in advance by, for example, 37.1 ° C. and the allowable lower limit, eg, 36.5 ° C., if the body temperature of the received patient is above the allowable upper limit, ie 37.1 ° C., the first A second transmitter is transmitted through the transmitter 49 as a first control signal to the first receiver 47 of the first control substrate 36 to stop the operation of the first thermoelectric module 18. First and second transmitters 49 to transmit an 'on' signal for operating the second thermoelectric module 20 as a second control signal to the second receiver 54 of the second control board 40 through 50. , 50).

On the contrary, if the patient's temperature value received from the temperature sensor 53 is lower than the allowable lower limit value, that is, 36.5 ° C. or less, the third microprocessor 51 transmits the first thermoelectric signal as the first control signal through the first transmitter 49. An 'off' signal for operating the module 18 to the first receiver 47 and an 'off' for stopping the operation of the second thermoelectric module 20 as a second control signal through the second transmitter 50. Control the first and second transmitters 49 and 50 to transmit a signal to the second receiver 54.

Further, if the patient's body temperature value received from the temperature sensor 53 is between an allowable lower limit value, i.e., 36.5 deg. C, and an allowable upper limit value, i.e., 37.1 deg. C, the third microprocessor 51 may transmit the first and second transmitters. The first and second transmitters 49 and 50 are controlled to transmit 'off' signals to the first and second receivers 47 and 54, respectively, as the first and second control signals through the 49 and 50, respectively.

The base part 24 attaches and supports the first and second thermoelectric modules 18 and 20 and the first and second control substrates 36 and 40. The first and second thermoelectric modules 18 and 20 may include the first and second heating and cooling conducting plates 38, 39; 42, 43 (optionally, the first to fourth heating and Second plates of the first to fourth heating and cooling thermoelectric elements such that the first plates 33, 33 ′ of the cooling thermoelectric elements 25, 26, 27, 28; 29, 30, 31, 32 are exposed to the outside. 34, 34 ′ are attached on one surface of the base portion 24. The first and second control substrates 36 and 40 are attached on the right side and the left side (see Fig. 2) of the upper surface of the base portion 24, respectively.

In this embodiment, the base portion 24 may be formed in a rectangular shape by a flexible insulating material such as insulating fabric, nonwoven fabric, leather, or the like.

In addition, the base portion 24 may include a fixing portion 60 to detachably fix the base portion 24 to the transfer hose 16 for transferring the oxygen gas and / or anesthetic gas. The fixing part 60 is a female adhesive pad 61 such as a female magic tape formed on the upper surface of the base portion 24 and a male adhesive pad 62 such as a male magic tape formed on the lower surface of the base portion 24. It may include. Thus, as shown in FIG. 5 showing a practical application, the base portion 24 is wound around the transfer hose 16 to surround the transfer hose 16 such as a corrugated tube, and then the female adhesive pad ( 61 and the water-adhesive pad 62 can be fixed to the transfer hose 16 by adhering to each other.

Optionally, as shown in FIGS. 6A and 6B, the base portions 24 ′, 24 ″ are polyhedral shaped 24 ′ integrally fixed to the intake portion of the transfer hose 16 ′, such as a patient breathing hose. Or cylindrical form 24 ".

In this case, the first and second thermoelectric modules 18 and 20 are provided with the first and second heating conducting plates 38 and 39 and the first and second cooling conducting plates 42 and 43 (without the heat conducting plate). When the first to fourth heating and cooling thermoelectric elements (25, 26, 27, 28; 29, 30, 31, 32) of the first surface (33; 33 ')) is placed in contact with the transfer hose 16' do. In addition, at this time, the base portion 24 ', 24 "does not have a separate fixing portion for fixing detachably to the transfer hose 16'.

For example, in detail, in the case of the cylindrical base portion 24 ″ shown in FIG. 6B, as shown in FIG. 6C, the base portion 24 ″ is formed of a hollow rod-shaped tube made of plastic material. The fourth to fourth heating thermoelectric elements 25, 26, 27, and 28 and the first to fourth cooling thermoelectric elements 29, 30, 31, and 32 are attached to the inner circumferential surface thereof. In addition, a temperature sensor 53 'is attached to an outer circumferential surface (or an inner circumferential surface) of the base portion 24 ". The temperature sensor 53' uses a wired method or a separate transceiver (not shown) using a line. Is connected to the third microprocessor 51 of the control box 46. The base portion 24 "configured as described above is inserted into and connected to the outer circumferential surface of the intake portion of the transfer hose 16 '. Etc., it is fixed integrally.

In the above description, in the suction fluid supply system 100 to which the suction fluid heating and cooling device 10 is applied according to an embodiment of the present invention, the first and second thermoelectric modules 18 and 20 are respectively heated to the first to fourth heating. And cooling thermoelectric elements 25, 26, 27, 28; 29, 30, 31, 32, the present invention is not limited thereto. For example, as in the modified example shown in FIG. 7, the first and second thermoelectric modules 18 'and 20' are arranged with 12 heating thermoelectric elements 18a and 12 arranged in an array at a predetermined interval, respectively. Two cooling thermoelectric elements 20a. Twelve heating thermoelectric elements 18a are disposed on the right side of the upper surface of the base portion 24, and the remaining ten are arranged in a row with 10 cooling thermoelectric elements 20a at the center of the base portion 24. They are arranged alternately two by one. Twelve cooling thermoelectric elements 20a are also arranged on the left side of the upper surface of the base portion 24, and the remaining ten are arranged in a row with ten heating thermoelectric elements 18a at the center of the base portion 24. They are arranged alternately two by one. In this case, the heating conduction plate and the cooling conduction plate as shown in FIG. 2 are not attached to the 12 heating thermoelectric elements 18a and the 12 cooling thermoelectric elements 20a.

In addition, the suction fluid heating and cooling device 10 of the suction fluid supply system 100 according to an embodiment of the present invention is a transport passage for supplying the suction fluid, such as oxygen and / or anesthesia gas into the patient's lung ( Although illustrated and described as being applied to 14, the present invention is not limited thereto. For example, the suction fluid heating and cooling device 10 of the suction fluid supply system 100 according to an embodiment of the present invention supplies another suction fluid, for example, blood, Ringer's fluid, etc. into a patient's blood vessel. The same configuration and principle may be applied to the transfer hose.

Referring to the operation of the suction fluid supply system 100 to which the suction fluid heating and cooling device 10 according to an embodiment of the present invention configured as described above is as follows.

First, the base portion 24 is in close contact with a transfer hose 16 through which the first and second heating and cooling conducting plates 38, 39; 42, 43 transfer oxygen gas and / or anesthetic gas to the patient's lungs. After being wound around the transfer hose 16 to be in contact, the female adhesive pad 61 and the male adhesive pad 62 are attached to each other and fixed to the transfer hose 16.

Subsequently, the temperature sensor 53 is attached to the patient's armpit and the like, and an allowable upper limit value, for example, 37.1 ° C and an allowable lower limit value, for example, 36.5 ° C, are set via the temperature control part 52.

Thus, as described above with respect to FIGS. 1 and 4, the third microprocessor 51 controls the temperature sensor 53 attached to the patient to measure the patient's body temperature at regular intervals, for example, every few seconds. The first and second control substrates 36 and 40 of the first and second control boards 36 and 40 may be compared by comparing the temperature of the patient received from the temperature sensor 53 with the allowable upper and lower limits of the body temperature set by the temperature controller 52. And the first and second control signals, for example, the 'off' signal and the 'on' signal to the second receivers 47 and 54 (the body temperature value of the patient received from the temperature sensor 53 is an acceptable upper limit value, ie , When the temperature of the patient received from the temperature sensor 53 is lower than the allowable lower limit value, that is, 36.5 ℃ or less, or the 'off' signal and the 'off' '(The patient's temperature value received from the temperature sensor 53 is a lower allowable lower limit value, i.e., 36.5 deg. Control the first and second transmitters 49 and 50 to transmit).

If the first and second control signals received from the first and second transmitters 49 and 50 are 'off' and 'on' signals, respectively, the first microprocessor 48 may perform first to fourth heating thermoelectric elements. The first current supply unit 37 is controlled to stop the operations of the 25, 26, 27, and 28, and the second microprocessor 55 controls the first to fourth cooling thermoelectric elements 29, 30, 31, and 32. The second current supply unit 41 is controlled to cool the first plate 33 ′ of. As a result, the cool air generated in the first plate 33 'of the first to fourth cooling thermoelectric elements 29, 30, 31, and 32 is transferred through the first and second cooling conductive plates 42 and 43. The body temperature of the patient inhaling the oxygen gas and / or the anesthetic gas is delivered to the hose 16 and the oxygen gas and / or the anesthetic gas passing therethrough.

Conversely, if the first and second control signals received from the first and second transmitters 49 and 50 are 'on' and 'off' signals, respectively, then the first microprocessor 48 will heat the first to fourth heating. The first current supply unit 37 is controlled to heat the first plate 33 of the thermoelectric elements 25, 26, 27, and 28, and the second microprocessor 55 controls the first to fourth cooling thermoelectric elements 29. Control the second current supply unit 41 to stop the operation of the controllers 30, 31, and 32. As a result, the heat generated in the first plate 33 of the first to fourth heating thermoelectric elements 25, 26, 27, 28 is transferred through the first and second heating conductive plates 38 and 39. (16) and oxygen gas and / or anesthetic gas passing therethrough, thereby raising the body temperature of the patient inhaling the oxygen gas and / or anesthetic gas.

In addition, if the first and second control signals received from the first and second transmitters 49 and 50 are 'off' and 'off' signals, respectively, the first and second microprocessors 48 and 55 may respectively be used. The first and second current supply units 37 and 41 are controlled to stop the operations of the first to fourth heating and cooling thermoelectric elements 25, 26, 27, 28; 29, 30, 31, and 32. As a result, the transfer hose 16 and oxygen gas and / or anesthetic gas passing therethrough are sucked into the patient's lungs without being heated or cooled, and the patient's body temperature is maintained at its current state.

This operation is repeated until the supply of oxygen gas and / or anesthetic gas to the patient is not necessary and the base portion 24 of the suction fluid heating and cooling device 10 is removed from the transfer hose 16.

Next, the suction fluid heating and cooling device 10 ″ may be configured as shown in FIG. 11 and may be applied to both the suction fluid heating and cooling devices 100 and 100 ′.

The suction fluid heating and cooling device 10 "includes a thermoelectric module 20b including at least one first thermoelectric element to be heated and a second thermoelectric element to be cooled when a current is applied, and the thermoelectric module 20b. Cooling means (30b) for cooling the first thermoelectric element and the second thermoelectric element constituting, oxygen and anesthesia gas is passed through the connector 40b is coupled to the thermoelectric elements constituting the thermoelectric module (20b) and And a controller 50b for adjusting and controlling the temperature of the gas flowing into the patient, the thermoelectric module 20b and the cooling means 30b, and a base part 60b for supporting the thermoelectric elements constituting the thermoelectric module. do.

Here, the connector 40b through which the oxygen and anesthetic gas moves is formed with a U-shaped passage 41b, and at least two temperature sensors 42b are mounted on the passage 41b so as to sense a temperature.

And the connector 40b reveals that the heat insulating material 70b can be mounted except for the thermoelectric element constituting the thermoelectric module 20b and the coupling portion.

Referring to FIG. 8, a suction fluid supply system 100 ′ to which a suction fluid heating and cooling device 10 ′ is applied according to another embodiment of the present invention is schematically illustrated.

The suction fluid supply system 100 'includes a fluid source 11, a transfer passage 14, and a suction fluid heating and cooling device 10'.

Since the configuration except the suction fluid heating and cooling device 10 'is the same as the suction fluid supply system 100 shown in FIG. 1, detailed description thereof will be omitted.

As shown in FIG. 9, the suction fluid heating and cooling device 10 ′ includes a thermoelectric module 18 ″, a controller 22 ′ and a base 24.

The thermoelectric module 18 "may be selectively heated in one side and cooled in the other side, or cooled in one side and heated on the other side, for example, eight thermoelectric elements 25, 26, 27, 28 depending on the supply direction of the current. , 29 ', 30', 31 ', 32', etc. As shown in Fig. 3A, each of the thermoelectric elements 25, 26, 27, 28, 29 ', 30', 31 ', or 32'. ) Includes a first plate 33, a second plate 34 facing the first plate 33, and a semiconductor layer 35 interposed between the first and second plates 33 and 34. A power supply 37 ′ is connected to the semiconductor layer 35 to supply current, and selectively heats or cools the first and second plates 33 and 34 according to the direction of the supplied current. When a current in the first direction is applied to the semiconductor layer 35, the semiconductor layer 35 cools the second plate 34, and transfers heat absorbed from the second plate 34 to the first plate 33. To heat the first plate 33. Then, the current direction of the power supply 37 'is reversed. When tuning to, the heating and cooling takes place In contrast described above.

Depending on the direction of the supplied current, heat or cold air generated in the first plate 33 of the thermoelectric elements 25, 26, 27, 28, 29 ', 30', 31 ', 32' is required to be heated or cooled. In order to ensure uniform and wide transfer to the transfer hose 16, the first to fourth heat conductive plates (2, 25, 26; 27, 28; 29 ', 30'; 31 'and 32') are respectively provided. 38, 39, 42 ', 43'; shown in dashed lines for ease of illustration). Each of the thermal conductive plates 38, 39, 42 ′, or 43 ′ may be formed in an elongated rectangular shape by a metal such as stainless steel (sus).

The controller 22 'includes a first controller 44' and a control box 46 '(see FIG. 8).

The first controller 44 'controls the transfer of the first to eighth thermoelectric elements 25, 26, 27, 28, 29', 30 ', 31', and 32 'of the thermoelectric module 18 " For selectively heating or cooling the hose 16, it includes a current supply 37 'installed in the control board 36', a receiver 47 ', and a first microprocessor 48'. 36 'is attached to the upper right side of the base portion 24 (see Fig. 9). The current supply portion 37' is provided with the first to eighth thermoelectric elements 25, 26, 27, of the thermoelectric module 18 ". 28, 29 ', 30', 31 ', 32') in parallel. The receiver 47 'receives the first to third control signals transmitted from the transmitter 49' of the control box 46 'which will be described later. The current supply 37 'is a first to eighth thermoelectric element 25, 26, 27, 28 of the thermoelectric module 18 "in response to the first or second control signal under the control of the first microprocessor 48'. , 29 ', 30', 31 ', 32') in the first direction or in the second direction opposite to the first direction, or in response to the third control signal. Current supply to the eighth thermoelectric elements 25, 26, 27, 28, 29 ′, 30 ′, 31 ′, and 32 ′ is cut off. The first microprocessor 48 'controls the operations of the receiver 47' and the current supply 37 '.

Therefore, if the control signal received at the receiver 47 'is a first control signal for applying a first direction current to the thermoelectric module 18 ", as described below, the first microprocessor 48' is a thermoelectric module ( 18 ") to apply the current in the first direction to the first to eighth thermoelectric elements 25, 26, 27, 28, 29 ', 30', 31 ', and 32'. , 26, 27, 28, 29 ', 30', 31 ', 32') to control the current supply unit 37 'to heat the first plate 33 and to cool the second plate 34. Conversely, if the control signal received at the receiver 47 'is a second control signal for applying a second direction current to the thermoelectric module 18 ", as described below, the first microprocessor 48' may be a thermoelectric module ( A first direction of the thermoelectric module 18 "by applying a current in a second direction to the first to eighth thermoelectric elements 25, 26, 27, 28, 29 ', 30', 31 ', and 32' of the 18 " Current supply unit 37 to cool the first plate 33 and heat the second plate 34 of the eighth to eighth thermoelectric elements 25, 26, 27, 28, 29 ′, 30 ′, 31 ′, 32 ′. Control signal received from the receiver 47 'is a third control signal for interrupting supply of current to the thermoelectric module 18 "as described below. ) Blocks the current supply to the first to eighth thermoelectric elements 25, 26, 27, 28, 29 ′, 30 ′, 31 ′, and 32 ′ of the thermoelectric module 18 ″. The current supply unit 37 'is controlled to stop the operation of the elements 25, 26, 27, 28, 29', 30 ', 31', and 32 '. .

The control box 46 'is for remotely controlling the heating or cooling of the transfer hose 16 according to the patient's body temperature measured by the temperature sensor 53 attached to the patient, and the temperature controller 52 and the transmitter. 49 ', and a second microprocessor 51'.

The temperature control unit 52 is for allowing the medical staff to input and set the allowable upper limit value (eg, 37.1 ° C.) and the allowable lower limit value (eg, 36.5 ° C.) of the body temperature according to the purpose of FIG. 1. It is the same as the configuration of the temperature control unit 52 of the control box 46 shown in.

The transmitter 49 'transmits first to third control signals for controlling the thermoelectric module 18 "to the receiver 47' of the control board 36 'by the control of the second microprocessor 51'. ,

The second microprocessor 51 ′ is connected to the temperature sensor 53 attached to the patient's armpit and the like, and measures the body temperature of the patient every predetermined time, for example, every few seconds, counted by a clock (not shown). The temperature sensor 53 is controlled so as to.

In addition, the second microprocessor 51 'compares the patient's body temperature value transmitted from the temperature sensor 53 with the allowable upper limit value and the lower limit value of the body temperature set by the temperature controller 52 to control the controller plate 36'. The transmitter 49 'is controlled to transmit first to third control signals to the receiver 47'.

In more detail, when the body temperature of the patient measured at a certain time in the temperature sensor 53 is received from the temperature sensor 53, the second microprocessor 51 'is the temperature controller 52 to receive the received body temperature value of the patient. Compared with the permissible upper limit set in advance, e.g. 37.1 ° C and the permissible lower limit e.g. 36.5 ° C, and the received patient's body temperature is below the permissible lower limit, i.e. 36.5 ° C, The transmitter 49 'is controlled to transmit a first control signal to the receiver 47' for applying current in the first direction to the thermoelectric module 18 "through 49 '.

Conversely, if the patient's temperature value received from the temperature sensor 53 is above the allowable upper limit value, i.e., higher than 37.1 ° C, the second microprocessor 51 'is provided to the thermoelectric module 18 "via the transmitter 49'. The transmitter 49 'is controlled to transmit a second control signal for applying current in two directions to the receiver 47' of the control board 36 '.

Further, if the patient's body temperature value received from the temperature sensor 53 is between the allowable lower limit value, i.e., 36.5 deg. C, and the allowable upper limit value, i.e., 37.1 deg. C, the second microprocessor 51 ' The transmitter 49 'is controlled to transmit a third control signal to the receiver 47' for stopping the operation of the thermoelectric module 18 ".

The base portion 24 attaches and supports the thermoelectric module 18 "and the control board 36 '. The thermoelectric module 18" supports the first to fourth thermal conductive plates 38, 39, 42', and 43 '. The first plates 33 of the first to eighth thermoelectric elements 25, 26, 27, 28, 29 ′, 30 ′, 31 ′, and 32 ′ may be exposed to the outside when the thermal conductive plate is not provided. The second plates 34 of the first to eighth thermoelectric elements 25, 26, 27, 28, 29 ′, 30 ′, 31 ′, and 32 ′ are attached on the upper surface of the base portion 24. The control board 37 ′ is attached to the upper right side of the base 24 (see FIG. 9).

Since the other structure of the base part 24 is the same as that of the base part 24 demonstrated with reference to FIG. 2, detailed description is abbreviate | omitted.

Referring to the operation of the suction fluid supply system 100 to which the suction fluid heating and cooling device 10 'according to another embodiment of the present invention configured as described above is as follows.

First, the base portion 24 is attached and fixed to the transfer hose 16, as described in connection with the suction fluid supply system 100 of the embodiment above.

Subsequently, the temperature sensor 53 is attached to the armpit of the patient, and the allowable upper limit value (eg, 37.1 ° C) and the allowable lower limit value (eg, 36.5 ° C) are set via the temperature controller 52. .

Thus, as described above with respect to FIG. 8, the second microprocessor 51 ′ controls the temperature sensor 53 attached to the patient to measure the body temperature of the patient at a predetermined time, for example, every few seconds, The thermoelectric module 18 is connected to the receiver 47 'of the control panel 36' by comparing the patient's temperature received from the temperature sensor 53 with the allowable upper and lower limits of the body temperature set by the temperature controller 52. A first control signal for applying current in the first direction to the ") (when the temperature value of the patient received from the temperature sensor 53 is lower than the allowable lower limit value, that is, 36.5 ° C. or lower), and the thermoelectric module 18 " A second control signal for applying current in two directions (when the temperature of the patient received from the temperature sensor 53 is an allowable upper limit value, that is, 37.1 ° C. or higher), or supplying current to the thermoelectric module 18 " Third control signal for blocking (body temperature value received from the temperature sensor 53 is allowed Possible lower limit value, that is, controls the transmitter 49 'to transmit a 36.5 ℃ and the allowable upper limit value, that is, when is between 37.1 ℃).

If the control signal received from the transmitter 49 'is the first control signal, the first microprocessor 48' may be the first to eighth thermoelectric elements 25, 26, 27, 28, 29 ', 30', 31 '. , 32 ') to apply the current in the first direction to heat the first plate 33 of the first to eighth thermoelectric elements 25, 26, 27, 28, 29', 30 ', 31', and 32 '. To control the current supply unit 37 '. As a result, the heat generated in the first plate 33 of the first to eighth thermoelectric elements 25, 26, 27, 28, 29 ′, 30 ′, 31 ′, and 32 ′ is first to fourth conduction. The body temperature of the patient who is transferred to the transfer hose 16 and the oxygen gas and / or anesthetic gas passing therethrough through the plates 38, 39, 42 'and 43', and thus inhales the oxygen gas and / or the anesthetic gas. Is raised.

On the contrary, if the control signal received from the transmitter 49 'is the second control signal, the first microprocessor 48' may use the first to eighth thermoelectric elements 25, 26, 27, 28, 29 ', 30', The first plate 33 of the first to eighth thermoelectric elements 25, 26, 27, 28, 29 ′, 30 ′, 31 ′ and 32 ′ by applying current in the second direction to The current supply unit 37 'is controlled to cool. As a result, the cold air generated in the first plate 33 of the first to eighth thermoelectric elements 25, 26, 27, 28, 29 ′, 30 ′, 31 ′, 32 ′ is oxygen gas and / or anesthesia. The body temperature of the patient, which is delivered to the gas and inhales the oxygen gas and / or the anesthetic gas, is lowered.

In addition, when the control signal received from the transmitter 49 'is the third control signal, the first microprocessor 48' may include the first to eighth thermoelectric elements 25, 26, 27, 28, 29 ', 30', The current supply unit 37 'is controlled to stop the operation of 31' and 32 '. As a result, the transfer hose 16 and oxygen gas and / or anesthetic gas passing therethrough are sucked into the patient's lungs without being heated or cooled, and the patient's body temperature is maintained at its current state.

This operation is repeated until the supply of oxygen gas and / or anesthetic gas to the patient is not necessary and the base portion 24 of the suction fluid heating and cooling device 10 'is removed from the transfer hose 16. .

In the above, the present invention has been described and illustrated in connection with embodiments for illustrating the principle, but the present invention is not limited to the configuration and operation shown and described as such. In addition, it will be understood by those skilled in the art that various changes and modifications can be made to the present invention without departing from the spirit and scope of the appended claims. Accordingly, all suitable changes, modifications, and equivalents to the present invention should be considered to be within the scope of the present invention.

Claims (16)

1. A first thermoelectric module having at least one first thermoelectric element on which one surface is heated and the other surface is cooled when a current in one direction is applied;

   At least one second thermoelectric element is cooled when one side of the first thermoelectric element is oriented in the same direction as the other side of the first thermoelectric element when the current in one direction is applied, and the other side oriented in the same direction as the other side of the first thermoelectric element is heated. A second thermoelectric module provided;

   A control unit for selectively operating the first thermoelectric module or the second thermoelectric module by selectively applying current in one direction to the first thermoelectric module or the second thermoelectric module; And

   A base part supporting the first and second thermoelectric elements by attaching the second surfaces of the first and second thermoelectric elements at regular intervals such that the one surfaces of the first and second thermoelectric elements face outwardly; Suction fluid heating and cooling device comprising a.
2. The method of claim 1,

   The first thermoelectric module further includes a first thermal conductive plate attached to the one surface of the first thermoelectric element,

   The second thermoelectric module further includes a second heat conduction plate attached to the one surface of the second thermoelectric element.
3. The method of claim 1, wherein the control unit,

   A first control unit electrically connected to the first thermoelectric module to control the first thermoelectric module, the first control unit having a first receiver configured to receive a first control signal for controlling the first thermoelectric module;

   A second control unit connected to the second thermoelectric module to control the second thermoelectric module, the second control unit having a second receiver configured to receive a second control signal for controlling the second thermoelectric module; And

   And a control box having first and second transmitters to transmit the first and second control signals to the first and second receivers according to a temperature measured by a temperature sensor attached to the patient or the base unit. Suction fluid heating and cooling device characterized in that.
4. The suction fluid heating and cooling device of claim 1, wherein the base part is formed of a flexible insulating material.
5. The suction fluid heating and cooling device of claim 1, wherein the base part includes a fixing part detachably fixed to the base part in a transfer path for transporting the suction fluid.
6. The suction gas heating and cooling device of claim 1, wherein the base part is fixedly inserted into and connected to a transfer path for transferring the suction fluid.
7. A thermoelectric module having at least one thermoelectric element selectively heated on one side and cooled on the other side or cooled on the other side according to the supply direction of the current;

   A first control unit electrically connected to the thermoelectric module to control the thermoelectric module, the first control unit including a receiver receiving a control signal for controlling the thermoelectric module, and a current applied to the thermoelectric element according to a temperature measured by a temperature sensor A control box including a control box having a transmitter for transmitting a control signal to the receiver to change a supply direction of the power supply or to block supply of the current; And

   And a base part attaching the other surface of the thermoelectric element to support the thermoelectric element such that the one surface of the thermoelectric element faces outward.
8. The suction fluid heating and cooling device of claim 7, wherein the thermoelectric module further comprises a first thermal conductive plate attached to the one surface of the thermoelectric element.
9. 8. The suction fluid heating and cooling device of claim 7, wherein the base portion is formed of a flexible insulating material.
10. 8. The suction fluid heating and cooling device of claim 7, wherein the base part includes a fixing part to detachably fix the base part to a transfer path for transferring the suction fluid.
11. The suction gas heating and cooling device of claim 7, wherein the base part is fixedly inserted into a transfer path for transferring the suction fluid.
12. A thermoelectric module having at least one first thermoelectric element to be heated and a second thermoelectric element to be cooled when a current is applied;

    Cooling means for cooling the first thermoelectric element and the second thermoelectric element constituting the thermoelectric module;

    A connection port through which oxygen and anesthetic gas pass and a thermoelectric element constituting the thermoelectric module is coupled to a rear surface thereof;

    A controller for controlling and controlling the temperature of the thermoelectric module, the cooling means, and the gas flowing into the patient;

    And a base part for supporting the thermoelectric elements constituting the thermoelectric module.
13. The method of claim 12,

    The connector is formed with a U-shaped passage through which oxygen and anesthetic gas move, the passage is equipped with at least two temperature sensors, the outer surface of the suction fluid heating and cooling device characterized in that the insulating material is mounted .
14. In the suction fluid supply system for supplying the suction fluid to the necessary part of the body,

    A fluid source for storing the suction fluid;

    A transfer passage for transferring the suction fluid to a required portion of the body; And

    A suction fluid heating and cooling device according to any one of claims 1 to 13 attached to the transfer passage and selectively heating or cooling the transfer passage according to the body temperature of the body. Suction fluid supply system.
15. The method of claim 14,

    Suction fluid supply system, characterized in that the transfer passage is equipped with a temperature sensor.
16. The method of claim 14,

    A plurality of gas temperature measuring temperature sensors are selectively mounted in the suction fluid supply system, and the gas temperature measuring temperature sensor is equipped with a first gas temperature measuring temperature sensor at a suction fluid heating and a controller position where gas is introduced. And a temperature sensor for measuring a second gas temperature in a suction fluid heating and cooling device through which gas is discharged, and a temperature sensor for measuring a third gas temperature in front of the patient's mouth.

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