CN216675812U - Pneumoperitoneum machine capable of accurately controlling cavity pressure - Google Patents
Pneumoperitoneum machine capable of accurately controlling cavity pressure Download PDFInfo
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- CN216675812U CN216675812U CN202123022224.7U CN202123022224U CN216675812U CN 216675812 U CN216675812 U CN 216675812U CN 202123022224 U CN202123022224 U CN 202123022224U CN 216675812 U CN216675812 U CN 216675812U
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Abstract
The utility model provides a but pneumoperitoneum machine of accurate control cavity pressure, includes pneumoperitoneum machine body, and the inside of pneumoperitoneum machine body is provided with first air duct, second air duct and third air duct, has seted up exhaust inlet, exhaust outlet, carbon dioxide gas outlet and carbon dioxide air inlet on the pneumoperitoneum machine body, and exhaust inlet and exhaust outlet are connected respectively to the both ends of first air duct, and carbon dioxide gas outlet and carbon dioxide air inlet are connected respectively to the both ends of second air duct. The utility model is connected with the cavity of the patient through two gas transmission pipes, one gas transmission pipe is used for supplying carbon dioxide gas to the cavity of the patient, and the other gas transmission pipe is used for discharging the carbon dioxide gas from the cavity of the patient; the real-time environment in the cavity of the patient can be accurately monitored by matching with a sensor, a control valve, a flow controller and the like in the pneumoperitoneum machine, and the flow rate of the filling of the carbon dioxide can be timely regulated and controlled; prevent that atmospheric pressure in the patient cavity is out of control, avoid influencing the operation, guarantee patient life safety.
Description
Technical Field
The utility model belongs to the technical field of medical equipment, and particularly relates to a pneumoperitoneum machine capable of accurately controlling cavity pressure.
Background
The pneumoperitoneum machine is a necessary device for endoscopic abdominal cavity operation, and has the functions of filling carbon dioxide with certain pressure into an operation cavity and maintaining the pressure in the operation cavity so that a doctor can obtain a good operation space by using an operation instrument. Endoscopic surgery is now a widely used minimally invasive surgical procedure, which basically replaces the traditional open surgical procedure, in which a surgical site or the abdominal cavity is inflated with carbon dioxide gas to bulge in order to provide the surgeon with a good operating space and visual field space.
The filling amount of carbon dioxide or the cavity pressure needs to be precisely and finely controlled according to different operation positions, cavity sizes, patient constitutions, adults, children and the like. However, the pneumoperitoneum machine on the market at present cannot accurately monitor the real-time environment in the cavity of the patient and timely regulate and control the filling flow rate and the flow rate of the carbon dioxide; this can easily cause the air pressure in the patient cavity to be out of control, which can cause serious influence to the operation and even endanger the life safety of the patient.
The existing pneumoperitoneum machine is connected with a patient cavity through a single gas pipe, the pneumoperitoneum machine monitors the air pressure in the patient cavity through the single gas pipe, and the simplified working process is as follows: firstly, the air pressure in the air delivery pipe is detected, because the air delivery pipe is communicated with the cavity of the patient, the pressure value in the cavity of the patient is defaulted when the air pressure in the air delivery pipe is detected, if the detected pressure value is lower than the set pressure value, the pneumoperitoneum machine opens the control valve of the carbon dioxide, a certain amount of carbon dioxide is filled into the cavity of the patient through the air delivery pipe, the carbon dioxide is kept filled for a period of time, then the control valve of the carbon dioxide is closed, then the air pressure in the air delivery pipe is detected, and if the detected pressure value is lower than the set pressure value, the control valve of the carbon dioxide is opened again to fill more carbon dioxide until the detected air pressure in the air delivery pipe is equal to the set air pressure value. If the measured air pressure value is higher than the set value, the bypass air control valve is opened again, the excessive air is discharged again until the measured pressure value is equal to the set air pressure value. Therefore, the working state of the pneumoperitoneum machine is the process of intermittent measurement and control through the air conveying pipe, and the air pressure value in the cavity of the patient can fluctuate up and down to change circularly.
Therefore, a pneumoperitoneum machine capable of precisely controlling the pressure of a cavity has been devised to solve the above problems.
It should be noted that the above background description is only for the sake of clarity and complete description of the technical solutions of the present invention and for the understanding of those skilled in the art. Such solutions are not considered to be known to the person skilled in the art merely because they have been set forth in the background section of the utility model.
Disclosure of Invention
In order to overcome the defects in the prior art, the utility model aims to provide a pneumoperitoneum machine capable of accurately controlling the pressure of a cavity.
In order to achieve the above objects and other related objects, the present invention provides the following technical solutions: a pneumoperitoneum machine capable of accurately controlling the pressure of a cavity comprises a pneumoperitoneum machine body, wherein a first air duct, a second air duct and a third air duct are arranged inside the pneumoperitoneum machine body, an exhaust inlet, an exhaust outlet, a carbon dioxide air outlet and a carbon dioxide air inlet are formed in the pneumoperitoneum machine body, two ends of the first air duct are respectively connected with the exhaust inlet and the exhaust outlet, and two ends of the second air duct are respectively connected with the carbon dioxide air outlet and the carbon dioxide air inlet;
the first air duct is sequentially provided with a first pressure sensor, a first flow controller and a first gas control valve, the first pressure sensor is communicated with the exhaust inlet, and the first gas control valve is communicated with the exhaust outlet;
the second gas guide pipe is sequentially provided with a three-way joint, a second pressure sensor, a second flow controller and a gas pressure reducing valve, the gas pressure reducing valve is communicated with the carbon dioxide gas inlet, the three-way joint is communicated with the carbon dioxide gas outlet, the second gas guide pipe is also connected with a third gas guide pipe through the three-way joint, and a second gas control valve is arranged on the third gas guide pipe;
the first air duct and the third air duct are positioned on the same side of the pneumoperitoneum machine body.
The preferable technical scheme is as follows: the pneumoperitoneum machine is characterized in that a power filter, a switching power supply and a control circuit board are arranged inside the pneumoperitoneum machine body, a power switch is arranged on the pneumoperitoneum machine body, and the power filter, the control circuit board and the power switch are all electrically connected with the switching power supply.
The preferable technical scheme is as follows: the outer side end of the carbon dioxide gas outlet is connected with a first laparoscope trocar through a first gas pipe, and the outer side end of the exhaust inlet is connected with a second laparoscope trocar through a second gas pipe.
The preferable technical scheme is as follows: the first air conveying pipe is provided with a filter.
The preferable technical scheme is as follows: the carbon dioxide gas outlet and the exhaust inlet are both positioned on the front panel of the pneumoperitoneum machine body, and the front panel of the pneumoperitoneum machine body is also provided with a switch button and an LCD screen.
The preferable technical scheme is as follows: the carbon dioxide air inlet and the exhaust outlet are both located on the rear panel of the pneumoperitoneum machine body, a power supply interface is arranged on the rear panel of the pneumoperitoneum machine body, and the power supply interface is electrically connected with the switching power supply.
The preferable technical scheme is as follows: the pneumoperitoneum machine is characterized in that a serial port is arranged on a rear panel of the pneumoperitoneum machine body and electrically connected with the control circuit board.
The preferable technical scheme is as follows: the pneumoperitoneum machine is characterized in that an equipotential terminal is arranged on a rear panel of the pneumoperitoneum machine body and is electrically connected with the control panel.
The preferable technical scheme is as follows: the pneumoperitoneum machine body is provided with a heating connector.
Due to the application of the technical scheme, compared with the prior art, the utility model has the advantages that:
the pneumoperitoneum machine capable of accurately controlling the pressure of the cavity is connected with the cavity of a patient through two gas transmission pipes, wherein one gas transmission pipe is used for supplying carbon dioxide gas to the cavity of the patient, and the other gas transmission pipe is used for discharging the carbon dioxide gas from the cavity of the patient; by matching with the sensor, the control valve, the flow controller and the like in the pneumoperitoneum machine, the real-time environment in the cavity of the patient can be accurately monitored, and the flow rate of the filling carbon dioxide can be timely regulated and controlled; prevent that atmospheric pressure in the patient cavity is out of control, avoid influencing the operation, guarantee patient life safety.
Drawings
Fig. 1 is a schematic view of the internal structure of the pneumoperitoneum machine body.
FIG. 2 is a schematic diagram of the front panel structure of the pneumoperitoneum machine body.
FIG. 3 is a schematic diagram of a rear panel structure of the pneumoperitoneum machine body.
Figure 4 is a schematic view of the connection of the pneumoperitoneum machine body and the patient cavity.
In the above drawings, a power filter 1, a switching power supply 2, a control circuit board 3, a power switch 4, a first pressure sensor 5, a first flow controller 6, a second gas control valve 7, a first gas control valve 8, a gas pressure reducing valve 9, a second flow controller 10, a second pressure sensor 11, a three-way joint 12, a first gas guide pipe 13, a second gas guide pipe 14, a third gas guide pipe 15, a switch button 20, an LCD panel 21, a carbon dioxide gas outlet 22, an exhaust inlet 23, a carbon dioxide gas inlet 30, a heating connector 31, an exhaust outlet 32, a serial port 33, a power interface 34, an equipotential terminal 35, a pneumoperitoneum machine body 40, a filter 41, a first gas transmission pipe 42, a first laparoscopic trocar 43, a patient cavity 44, a second laparoscopic trocar 45, and a second gas transmission pipe 46.
Detailed Description
The embodiments of the present invention are described below with reference to specific embodiments, and other advantages and effects of the present invention will be readily apparent to those skilled in the art from the disclosure of the present invention.
Please refer to fig. 1 to 4. It should be understood that in the description of the present invention, it should be noted that the terms "center", "upper", "lower", "left", "right", "vertical", "horizontal", "inner", "outer", etc. indicate the orientation or positional relationship based on the orientation or positional relationship shown in the drawings, or the orientation or positional relationship which the products of the present invention are usually placed in when used, which is only for the convenience of describing the present invention and simplifying the description, but does not indicate or imply that the device or element referred to must have a specific orientation, be constructed in a specific orientation, and be operated, and therefore, should not be construed as limiting the present invention. Furthermore, the terms "first," "second," "third," and the like are used solely to distinguish one from another and are not to be construed as indicating or implying relative importance. The terms "horizontal", "vertical", "overhang" and the like do not imply that the components are required to be absolutely horizontal or overhang, but may be slightly inclined. For example, "horizontal" merely means that the direction is more horizontal than "vertical" and does not mean that the structure must be perfectly horizontal, but may be slightly inclined.
In the description of the present invention, it should be further noted that, unless otherwise specifically stated or limited, the terms "disposed," "mounted," "connected," and "connected" are to be construed broadly and may include, for example, a fixed connection, a detachable connection, an integral connection, a mechanical connection, an electrical connection, a direct connection, an indirect connection via an intermediate medium, and a communication between two elements. The specific meanings of the above terms in the present invention can be understood in specific cases to those skilled in the art.
Example (b): as shown in fig. 1 to 4, a pneumoperitoneum machine capable of accurately controlling the pressure of a cavity comprises a pneumoperitoneum machine body 40, wherein a first air duct 13, a second air duct 14 and a third air duct 15 are arranged inside the pneumoperitoneum machine body 40, an exhaust inlet 23, an exhaust outlet 32, a carbon dioxide air outlet 22 and a carbon dioxide air inlet 30 are formed in the pneumoperitoneum machine body 40, two ends of the first air duct 13 are respectively connected with the exhaust inlet 23 and the exhaust outlet 32, and two ends of the second air duct 14 are respectively connected with the carbon dioxide air outlet 22 and the carbon dioxide air inlet 30; the first air duct 13 is sequentially provided with a first pressure sensor 5, a first flow controller 6 and a first gas control valve 8, the first pressure sensor 5 is communicated with the exhaust inlet 23, and the first gas control valve 8 is communicated with the exhaust outlet 32; the second air duct 14 is sequentially provided with a three-way joint 12, a second pressure sensor 11, a second flow controller 10 and an air reducing valve 9, the air reducing valve 9 is communicated with a carbon dioxide air inlet 30, the three-way joint 12 is communicated with a carbon dioxide air outlet 22, the second air duct 14 is also connected with a third air duct 15 through the three-way joint 12, and the third air duct 15 is provided with a second air control valve 7; the first airway tube 13 and the third airway tube 15 are located on the same side of the pneumoperitoneum machine body 40. The inside of pneumoperitoneum machine body 40 is provided with power filter 1, switching power supply 2 and control circuit board 3, is provided with switch 4 on the pneumoperitoneum machine body 40, and power filter 1, control circuit board 3, switch 4 all link to each other with switching power supply 2 electrical property. The outer end of the carbon dioxide gas outlet port 22 is connected to a first laparoscopic trocar 43 via a first gas line 42, and the outer end of the exhaust gas inlet port 23 is connected to a second laparoscopic trocar 45 via a second gas line 46. The first air duct 42 is provided with a filter 41. The carbon dioxide gas outlet 22 and the exhaust inlet 23 are both positioned on the front panel of the pneumoperitoneum machine body 40, and the front panel of the pneumoperitoneum machine body 40 is also provided with a switch button 20 and an LCD (liquid crystal display) 21. The carbon dioxide inlet 30 and the exhaust outlet 32 are both located on the rear panel of the pneumoperitoneum machine body 40, the rear panel of the pneumoperitoneum machine body 40 is provided with a power interface 34, and the power interface 34 is electrically connected with the switch power supply 2. The back panel of the pneumoperitoneum machine body 40 is provided with a serial port 33, and the serial port 33 is electrically connected with the control circuit board 3. The rear panel of the pneumoperitoneum machine body 40 is provided with an equipotential terminal 35, and the equipotential terminal 35 is electrically connected with the control panel. The pneumoperitoneum machine body 40 is provided with a heating connector 31.
Wherein:
the power filter 1 is externally connected with an alternating current power supply.
The switching power supply 2 is used to convert alternating current into direct current.
The control circuit board 3 is used for measuring and controlling various sensors, control valves and the like in the pneumoperitoneum machine.
The power switch 4 is used for switching on or off the pneumoperitoneum machine power supply.
The first pressure sensor 5 and the second pressure sensor 11 are used for measuring the pressure value in the trachea.
The first flow controller 6 and the second flow controller 10 are used for controlling the flow rate of the gas.
The first gas control valve 8 and the second gas control valve 7 are used for controlling the passing and closing of the gas.
The gas pressure reducing valve 9 is used to reduce the external gas pressure to a reasonable value.
The three-way joint 12 is used for connecting an air pipe.
The switch button 20 is used for controlling the power of the whole pneumoperitoneum machine to be turned on and off.
The LCD 21 is used for displaying the parameters of pneumoperitoneum setting.
The carbon dioxide outlet 22 is used for connecting an external air conveying pipe with the cavity 44 of the patient.
The exhaust inlet 23 is used to connect with the patient cavity 44 via a gas line to remove the smoke gas from the patient cavity 44.
The carbon dioxide inlet 30 is used for connecting a gas transmission pipe with a gas steel cylinder or a centralized gas supply end in a hospital.
The heating connector 31 is used for connecting with a matched gas pipe heater.
The exhaust outlet 32 is used for exhaust, and there are two use modes: firstly, directly discharge the smog of the patient cavity 44, and secondly, the external air pipe is connected with the smoke removing equipment to treat the smog gas.
The serial port 33 has two use modes: firstly, a pedal switch is externally connected to control the opening and closing of an exhaust function; and secondly, the pneumoperitoneum machine is connected with other equipment through a serial port 33 line to control the pneumoperitoneum machine in a communication mode.
The power interface 34 is connected to ac power via a power cord.
The equipotential terminal 35 is used in cooperation with other devices and is grounded together.
The filter 41 is used to filter impurities in the passing gas.
The first air delivery pipe 42 and the second air delivery pipe 46 are both disposable air delivery pipes.
The principle is as follows:
carbon dioxide gas passes through carbon dioxide air inlet 30 and gets into the inside of pneumoperitoneum machine body 40, at first gets into gas pressure reducing valve 9, because outside air feed gas pressure is very high, can drop to a more reasonable pressure value behind the gas pressure reducing valve 9, through silicone tube (second air duct 14) reentrant second flow controller 10, the function of second flow controller 10 has: the pressure and the temperature of the passing gas are measured by controlling the flow rate of the passing gas.
The gas enters the second gas pressure sensor after passing through the second flow controller 10, the pressure value in the silicone tube (the second air duct 14) is measured again by the second gas pressure sensor, and then the gas enters the filter 41 through the carbon dioxide gas outlet 22 of the pneumoperitoneum machine and enters the patient cavity 44 through the first air duct 42.
A three-way joint 12 is arranged between the second gas pressure sensor inside the pneumoperitoneum machine body 40 and the carbon dioxide gas outlet 22, one end of the three-way joint 12 is connected with the second gas control valve 7 through a silicone tube (a third gas guide tube 15), the second gas control valve 7 is set to be in a normally closed state, and only when the value of the second pressure sensor 11 is measured to be higher than a set value, the second gas control valve is opened to discharge excessive gas until the value of the second pressure sensor 11 is equal to the set value.
The second air pipe 46 connected back from the other end of the patient cavity 44 is connected to the exhaust inlet 23 of the pneumoperitoneum machine body 40, the inner silicone tube (the first air duct 13) of the pneumoperitoneum machine body 40 is connected to the exhaust inlet 23, the silicone tube (the first air duct 13) passes through the first pressure sensor 5, the first flow controller 6, the first air control valve 8 and the exhaust outlet 32 of the pneumoperitoneum machine body 40.
The application comprises the following steps:
the working process of the pneumoperitoneum machine is as follows: high-pressure carbon dioxide gas is connected into a carbon dioxide gas inlet 30 of the pneumoperitoneum machine, enters a second flow controller 10 after passing through an internal gas pressure reducing valve 9, passes through a second pressure sensor 11, and is connected with a carbon dioxide gas outlet 22 of a pneumoperitoneum machine body 40 through one end of a three-way joint 12 and is connected with a second gas control valve 7 through one end; the carbon dioxide outlet 22 of the pneumoperitoneum machine body 40 is connected with the filter 41 and then connected with the patient cavity 44 through the first air delivery pipe 42.
The way is the passage of carbon dioxide gas into the patient cavity 44, which is the same as the single gas transmission pipe of the pneumoperitoneum machine in the market, and has the advantages that the valve or the controller used for controlling and measuring in the pneumoperitoneum machine is different, and the operator of the pneumoperitoneum machine sets various parameters of the pneumoperitoneum machine according to the requirements of doctors, such as the gas pressure of the patient cavity 44, the maximum flow of the charged carbon dioxide, the gas flow or the maximum flow during smoke exhaust and air exhaust, the working mode of the exhaust and the like.
After the working parameters of the pneumoperitoneum machine are set by a doctor, the pneumoperitoneum machine firstly detects the working states of various valves and sensors and the current pressure value of gas. Comparing the values of the two gas pressure sensors, calculating the pressure difference to control the opening of the second flow controller 10, so that the gas is filled into the patient cavity 44 at a reasonable flow rate, and as the pressure value of the gas filled into the patient cavity 44 increases, the pneumoperitoneum machine monitors the pressure sensors in real time, and when the value measured by the pressure sensors is equal to the set value, the second flow controller 10 is closed, and the carbon dioxide filling into the patient cavity 44 is stopped. The whole cavity inflation process is continuous, and the inflation pressure does not exceed a set value because the real-time detection of the cavity pressure is carried out through the pressure sensor during inflation. The actions of firstly inflating for a period of time, then measuring the pressure of the cavity and then inflating and deflating can not occur. The inflation control pressure of the pneumoperitoneum machine is a closed loop that can control the pressure level in the patient cavity 44 in a variety of ways.
When a doctor needs to exhaust smoke in the patient cavity 44, the first gas control valve 8 is opened, the first flow controller 6 is opened according to the exhaust flow set by the doctor to remove smoke in the patient cavity 44, the flow rate of exhaust gas is known, then the second flow controller 10 with the same flow is set to supplement the exhausted gas, the first pressure sensor 5 and the second pressure sensor 11 are used for measuring and monitoring the cavity pressure in real time, and the pressure in the patient cavity 44 is always kept at the set pressure value of the doctor.
When a pressure in the patient cavity 44 is above the set point, there are two ways to reduce the cavity pressure: firstly, the second gas control valve 7 is opened to exhaust, the first pressure sensor 5 is monitored in real time, and the second gas control valve 7 is closed until the monitored pressure value is equal to the set value. And secondly, opening the first gas control valve 8 to exhaust, controlling the first flow controller 6 to exhaust at a certain flow rate, and monitoring the value of the second pressure sensor 11 in real time to reduce the pressure of the cavity to a set pressure value.
The pneumoperitoneum machine capable of accurately controlling the pressure of the cavity is connected with the cavity of a patient through two gas transmission pipes, wherein one gas transmission pipe is used for supplying carbon dioxide gas to the cavity of the patient, and the other gas transmission pipe is used for discharging the carbon dioxide gas from the cavity of the patient; by matching with the sensor, the control valve, the flow controller and the like in the pneumoperitoneum machine, the real-time environment in the cavity of the patient can be accurately monitored, and the flow rate of the filling carbon dioxide can be timely regulated and controlled; prevent that atmospheric pressure in the patient cavity is out of control, avoid influencing the operation, guarantee patient life safety.
The foregoing embodiments are merely illustrative of the principles and utilities of the present invention and are not intended to limit the utility model. Any person skilled in the art can modify or change the above-mentioned embodiments without departing from the spirit and scope of the present invention. Accordingly, it is intended that all equivalent modifications or changes which can be made by those skilled in the art without departing from the spirit and technical spirit of the present invention be covered by the claims of the present invention.
Claims (9)
1. The utility model provides a but pneumoperitoneum machine of accurate control cavity pressure, includes pneumoperitoneum machine body, its characterized in that: the pneumoperitoneum machine comprises a pneumoperitoneum machine body, and is characterized in that a first air duct, a second air duct and a third air duct are arranged inside the pneumoperitoneum machine body, an exhaust inlet, an exhaust outlet, a carbon dioxide air outlet and a carbon dioxide air inlet are formed in the pneumoperitoneum machine body, two ends of the first air duct are respectively connected with the exhaust inlet and the exhaust outlet, and two ends of the second air duct are respectively connected with the carbon dioxide air outlet and the carbon dioxide air inlet;
the first air duct is sequentially provided with a first pressure sensor, a first flow controller and a first gas control valve, the first pressure sensor is communicated with the exhaust inlet, and the first gas control valve is communicated with the exhaust outlet;
the second gas guide pipe is sequentially provided with a three-way joint, a second pressure sensor, a second flow controller and a gas pressure reducing valve, the gas pressure reducing valve is communicated with the carbon dioxide gas inlet, the three-way joint is communicated with the carbon dioxide gas outlet, the second gas guide pipe is also connected with a third gas guide pipe through the three-way joint, and a second gas control valve is arranged on the third gas guide pipe;
the first air duct and the third air duct are positioned on the same side of the pneumoperitoneum machine body.
2. A pneumoperitoneum machine capable of accurately controlling cavity pressure according to claim 1, wherein: the pneumoperitoneum machine is characterized in that a power filter, a switching power supply and a control circuit board are arranged inside the pneumoperitoneum machine body, a power switch is arranged on the pneumoperitoneum machine body, and the power filter, the control circuit board and the power switch are all electrically connected with the switching power supply.
3. A pneumoperitoneum machine capable of accurately controlling cavity pressure according to claim 2, wherein: the outer side end of the carbon dioxide gas outlet is connected with a first laparoscope trocar through a first gas pipe, and the outer side end of the exhaust inlet is connected with a second laparoscope trocar through a second gas pipe.
4. A pneumoperitoneum machine capable of accurately controlling cavity pressure according to claim 3, wherein: the first air conveying pipe is provided with a filter.
5. A pneumoperitoneum device capable of accurately controlling cavity pressure according to claim 4, wherein: the carbon dioxide gas outlet and the exhaust inlet are both positioned on the front panel of the pneumoperitoneum machine body, and the front panel of the pneumoperitoneum machine body is also provided with a switch button and an LCD screen.
6. A pneumoperitoneum device capable of accurately controlling cavity pressure according to claim 5, wherein: the carbon dioxide air inlet and the exhaust outlet are both located on the rear panel of the pneumoperitoneum machine body, a power supply interface is arranged on the rear panel of the pneumoperitoneum machine body, and the power supply interface is electrically connected with the switching power supply.
7. A pneumoperitoneum device capable of accurately controlling cavity pressure according to claim 6, wherein: the pneumoperitoneum machine is characterized in that a serial port is arranged on a rear panel of the pneumoperitoneum machine body and electrically connected with the control circuit board.
8. A pneumoperitoneum device capable of accurately controlling cavity pressure according to claim 7, wherein: the pneumoperitoneum machine is characterized in that an equipotential terminal is arranged on a rear panel of the pneumoperitoneum machine body and is electrically connected with the control circuit board.
9. A pneumoperitoneum device capable of accurately controlling cavity pressure according to claim 8, wherein: the pneumoperitoneum machine body is provided with a heating connector.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202123022224.7U CN216675812U (en) | 2021-12-03 | 2021-12-03 | Pneumoperitoneum machine capable of accurately controlling cavity pressure |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202123022224.7U CN216675812U (en) | 2021-12-03 | 2021-12-03 | Pneumoperitoneum machine capable of accurately controlling cavity pressure |
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| Publication Number | Publication Date |
|---|---|
| CN216675812U true CN216675812U (en) | 2022-06-07 |
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|---|---|---|---|
| CN202123022224.7U Active CN216675812U (en) | 2021-12-03 | 2021-12-03 | Pneumoperitoneum machine capable of accurately controlling cavity pressure |
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| CN (1) | CN216675812U (en) |
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2021
- 2021-12-03 CN CN202123022224.7U patent/CN216675812U/en active Active
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Address after: 215000 No.8 Zhujiawan street, Suzhou City, Jiangsu Province (room 1001, room 1002, room 1003, room 1004, block B, building 2) Patentee after: SUZHOU CARING MEDICAL Co.,Ltd. Address before: 4 / F, No.6 Yuping Road, science and Technology City, Suzhou high tech Zone, Jiangsu Province 215000 Patentee before: SUZHOU CARING MEDICAL Co.,Ltd. |