CN2719220Y - Bronchial environment miniature non-wound pressure-temperature monitoring device - Google Patents
Bronchial environment miniature non-wound pressure-temperature monitoring device Download PDFInfo
- Publication number
- CN2719220Y CN2719220Y CN 200420081304 CN200420081304U CN2719220Y CN 2719220 Y CN2719220 Y CN 2719220Y CN 200420081304 CN200420081304 CN 200420081304 CN 200420081304 U CN200420081304 U CN 200420081304U CN 2719220 Y CN2719220 Y CN 2719220Y
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- China
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- pressure
- monitoring device
- miniature
- endotracheal tube
- probe
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Abstract
The utility model relates to a bronchial environment miniature non-wound pressure-temperature monitoring device. A main body is composed of a tracheal catheter, and a miniature temperature pressure monitoring device is arranged on the pipe wall of the front end of the tracheal catheter. The miniature temperature pressure monitoring device is formed by connecting a miniature temperature probe with a miniature pressure probe. The body part of the miniature pressure probe is embedded on the pipe wall of the tracheal catheter. The head part of the miniature pressure probe is arranged on the inner side of the tracheal catheter. The miniature temperature probe is embedded on the pipe wall of the tracheal catheter. The head part is arranged on the outer side of the tracheal catheter. A packaging film is covered on the surface of the outer side of the miniature temperature probe. The periphery of the film is connected with the outer side face of the tracheal catheter. A conducting wire is connected on the miniature temperature pressure monitoring device. The conducting wire is buried in the pipe wall of the tracheal catheter, and the conducting wire is extracted from the tail end of the tracheal catheter, and the conducting wire is connected with a data collecting device and a data processing device. The miniature temperature pressure monitoring device along with the tracheal catheter is arranged in the trachea of the human body. The extra additional damage can be avoided. The temperature probe can directly mensurate the central temperature, and simultaneously the pressure monitoring probe can directly mensurate the pressure in the air flue and the dynamic changing is reacted.
Description
Technical field:
This utility model relates to medical apparatus and instruments, relates in particular to the medical monitoring device, the particularly sensing device of temperature and pressure in the air flue, and concrete is a kind of bronchus internal environment minisize non-invasive pressure and temp monitoring device.
Background technology:
In the prior art, the continuous variation of temperature and pressure has great importance for the accurate assurance of pathophysiological process and the adjustment of respiration parameter in the monitoring air flue.Wherein, the monitoring device of body temperature has had electronic clinical thermometer at present, infrared temperature sensor and liquid crystal temperature instrument are used clinically, electronic clinical thermometer, it is pharyngeal that infrared temperature sensor and liquid crystal temperature instrument are used to measure human nasal, distal esophagus, bladder and rectum, heart, jugular vein, tympanum, the temperature of forehead and skin of neck, usually medical personnel are pharyngeal with human nasal, distal esophagus, bladder and rectum, heart, jugular vein, tympanum, the temperature of forehead and skin of neck is as the representative of central body temperature, but there are many defectives with these position monitoring center temperature, cause additional injury easily.What is more important simultaneously: acute lung injury (is representative with SARS) occur in early days lung in air flue in variation of temperature, and with course of disease dynamic evolution.Thereby variation of temperature is observed significant for the early diagnosis and the course of disease of acute lung injury in the monitoring air flue.But can directly measure partial temperature of air flue and dynamic change thereof without any device for detecting temperature at present.In addition, the monitoring of mechanics of breathing can reflect the elastic characteristic and the flow resistance characteristic of breast lung, the differentiation of observation respiratory system resistance and the diagnosis and the therapeutic effect of pulmonary parenchyma disease there is valuable help, and respiratory mechanics monitor device of the prior art is positioned at respirator, by very long corrugated tubing, endotracheal tube links to each other with the patient, so being the reset pressure in the patient airway, the pressure that monitors do not change, but pressure through recording after the very long pipeline buffering, although eliminate the influence of mechanical dead space through corrective attempts, but still there is very big error with the reset pressure that records in the air flue, thereby had a strong impact on for the accurate judgement of breathing mechanics parameters and the reasonable adjustment of respiration parameter.Monitoring pressure changes and can reduce because water and mucus are blocked the false increase of airway pressure that pipeline causes the chance of minimizing air flue kinking in the air flue; Can be quicker, monitor mechanical ventilation delicately and cause that the ground airway pressure changes; Directly monitor the interior pressure of bronchia, draw the pressure-volume curve (P-V curve) of alveolar in conjunction with flow and capacity, so that adjust the best PEEP value.
Summary of the invention:
Technical problem of the prior art to be solved in the utility model is: because body-temperature monitoring device of the prior art can only measure that human nasal is pharyngeal, the temperature of distal esophagus, bladder and rectum, heart, jugular vein, tympanum, forehead and skin of neck, and all there are many defectives in the temperature of monitoring human nasopharynx part, distal esophagus, bladder and rectum, heart, jugular vein, tympanum, forehead and skin of neck.Concrete, the temperature at esophagus position is subject to keep somewhere the influence of position; Forehead temperature during CPB rapidly cooling and when heating up and jugular vein blood temperature differ bigger; The bladder temperature is difficult to reflect central temperature during oliguria during CPB, especially meaning is littler during the hypogastric region operation; Rectal temperature changes slow than esophagus temperature, aorta temperature between hypothermic phase.Though tympanic temperature can react the hypothalamus temperature, easy damaged auditory meatus in the measuring process is subject to the influence of skin temperature.Simultaneously, skin temperature is except that the control of acceptor center body temperature, and organism metabolism rate, dermal blood flow, hypodermic insulating properties, room temperature, wind speed etc. all can impact it, thereby have influenced thermometric accuracy.Simultaneously, respiratory mechanics monitor device of the prior art is positioned at respirator, link to each other with the patient by very long corrugated tubing, endotracheal tube, so being the reset pressure in the patient airway, the pressure that monitors do not change, but pressure through recording after the buffering of long pipeline very, although eliminate the influence of mechanical dead space through corrective attempts, but still there is very big error with the reset pressure that records in the air flue, thereby had a strong impact on for the accurate judgement of breathing mechanics parameters and the reasonable adjustment of respiration parameter.Intra-airway pressure is measured and can be reduced because water and mucus are blocked the false increase of airway pressure that pipeline causes, reduces the chance of air flue kinking, can be quicker, monitor the airway pressure variation that mechanical ventilation causes delicately; Directly the pressure in the monitoring bronchia draws alveolar pressure-volume curve (P-V curve) in conjunction with flow and capacity, so that adjust the best PEEP value.
This utility model is for solving above-mentioned technical problem of the prior art, and the technical scheme that is adopted provides a kind of bronchus internal environment minisize non-invasive pressure and temp monitoring device.Described this bronchus internal environment minisize non-invasive pressure and temp monitoring device, its main body is made of an endotracheal tube, be provided with a miniature temperature, pressure monitoring device in the front end tube wall of wherein said endotracheal tube, described miniature, temperature, pressure monitoring device is connected and composed by a miniature temperature probe and a micro pressure probe, be connected with lead respectively on described miniature temperature probe and the micro pressure probe, described lead is drawn from the tail end of described endotracheal tube.
Further, the tail end edge of described endotracheal tube is set with data acquisition unit, and described data acquisition unit is connected with described lead.
Further again, described data acquisition unit is connected with a data blood processor by cable, be provided with wireless signal transmitting device in the perhaps described data acquisition unit, described data acquisition unit links to each other with a wireless signal receiving device by the wireless signal passage, and described wireless signal receiving device is connected with a data blood processor by cable.
Further, described endotracheal tube is a double-lumen catheter.
Further, the arranged outside of described endotracheal tube has at least one tracheal tampon.
Further, the body of described micro pressure probe is entrenched in the tube wall of described endotracheal tube, the front end of described micro pressure probe is arranged on the inboard of described endotracheal tube, the body of described miniature temperature probe is chimeric to be arranged in the tube wall of described endotracheal tube, the head of described miniature temperature probe is arranged on the outside of described endotracheal tube, the outer surface of described miniature temperature probe covers and is provided with a surface encapsulation film, the periphery of described surface encapsulation film is connected with the lateral surface of described endotracheal tube, and described lead is embedded in the tube wall of described endotracheal tube.
Further, described miniature temperature probe is arranged in the tube wall of described endotracheal tube, and the outer surface of described miniature temperature probe is parabolic shape.
Further, described endotracheal tube is a double-lumen catheter, be provided with two described miniature, temperature, pressure monitoring devices in the front end tube wall of described double-lumen catheter, the left side front end that one of them is miniature, the temperature, pressure monitoring device is arranged on described double-lumen catheter, the right side catheter proximal end that another is miniature, the temperature, pressure monitoring device is arranged on described double-lumen catheter.
Concrete, miniature temperature probe described in this utility model, micro pressure probe, double-lumen catheter, data acquisition unit, data processing equipment, wireless signal receiving device and wireless signal transmitting device all can adopt known technology of the prior art, about miniature temperature probe, micro pressure probe, double-lumen catheter, data acquisition unit, data processing equipment, wireless signal receiving device and wireless signal transmitting device known solution in the prior art, those of ordinary skill in the art all knows, so do not repeat them here.For example, described wireless signal receiving device and wireless signal transmitting device can adopt bluetooth module, described miniature temperature probe can adopt temperature sensor, and described micro pressure probe can adopts pressure sensor, and described data processing equipment can adopt computer.
Operation principle of the present utility model is: miniature temperature probe and micro pressure probe are inserted person's windpipe, the extra additional injury that can avoid monitoring device itself to bring in the lump with the endotracheal tube that inserts.Because the intubate position is deep, can give full play to the cushioning effect of functional residual capacity simultaneously, avoid because the temperature fluctuation that ventilation causes; In addition, miniature temperature probe and micro pressure probe directly are incorporated in the tube wall of endotracheal tube, and be little to the influence of endotracheal tube caliber sectional area, can not increase the airway resistance of ventilation.
This utility model and prior art contrast, and its effect is actively with tangible.A kind of bronchus internal environment minisize non-invasive pressure and temp of this utility model monitoring device utilizes the microsensor technology, can realize dynamic, the continuous and The real time measure to central temperature; Can realize dynamic, the continuous and The real time measure of temperature in the local air flue.Can monitor in the trachea even the variation of intrabronchial pressure, pressure decay and the error of having avoided monitoring respirator loop and air flue proximal pressure to be caused, adjustment for the mechanical ventilation parameter has important directive significance, and can realize monitoring dynamically, continuously and in real time.This monitoring device is little to the influence of endotracheal tube caliber sectional area, and data can be by wireless signal transfer and acceptance.
Description of drawings:
Fig. 1 is the functional module structure sketch map of bronchus internal environment minisize non-invasive pressure and temp monitoring device of the present utility model.
Fig. 2 is the structural representation of bronchus internal environment minisize non-invasive pressure and temp monitoring device of the present utility model.
Fig. 3 is the cross-sectional view of the endotracheal tube end in the bronchus internal environment minisize non-invasive pressure and temp monitoring device of the present utility model.
The specific embodiment:
As Fig. 1, Fig. 2 and shown in Figure 3, bronchus internal environment minisize non-invasive pressure and temp monitoring device of the present utility model, constitute by an endotracheal tube 1, wherein, be provided with a miniature temperature, pressure monitoring device 10 in the tube wall of the front end 15 of described endotracheal tube 1, described miniature temperature, pressure monitoring device 10 is connected and composed by a miniature temperature probe 11 and a micro pressure probe 12, be connected with lead 13 respectively on described miniature temperature probe 11 and the micro pressure probe 12, described lead 13 is drawn from the tail end 16 of described endotracheal tube 1.
Further, the tail end edge of described endotracheal tube 1 is set with data acquisition unit 2, and described data acquisition unit 2 is connected with described lead 13.
In a preferred embodiment of the present utility model, described data acquisition unit 2 is provided with wireless signal transmitting device 3, described data acquisition unit 2 links to each other with a wireless signal receiving device 4 by the wireless signal passage, and described wireless signal receiving device 4 is connected with a data blood processor 5 by cable.
Further, described endotracheal tube 1 is a double-lumen catheter.
Further, the body of described micro pressure probe 12 is chimeric to be arranged in the tube wall of described endotracheal tube 1, the front end of described micro pressure probe 12 is arranged on the inboard of described endotracheal tube 1, the body of described miniature temperature probe 11 is chimeric to be arranged in the tube wall of described endotracheal tube 1, the head of described miniature temperature probe 11 is arranged on the outside of described endotracheal tube 1, the outer surface of described miniature temperature probe 1 covers and is provided with a surface encapsulation film 17, the periphery of described surface encapsulation film 17 is connected with the lateral surface of described endotracheal tube 1, and described lead 13 is embedded in the tube wall of described endotracheal tube 1.
Further, described miniature temperature probe 11 is arranged in the tube wall of described endotracheal tube 1, and the outer surface of described miniature temperature probe 11 is parabolic shape.
Further, be provided with two described miniature temperature, pressure monitoring devices 10 in the tube wall of the front end of described endotracheal tube 1, the left side catheter proximal end that one of them is miniature, temperature, pressure monitoring device 10 is arranged on described double-lumen catheter, the right side catheter proximal end that another is miniature, temperature, pressure monitoring device 10 is arranged on described double-lumen catheter.The arranged outside of the endotracheal tube 1 between described two miniature, temperature, pressure monitoring devices 10 has a tracheal tampon 14.
Claims (8)
1, a kind of bronchus internal environment minisize non-invasive pressure and temp monitoring device, its main body is made of an endotracheal tube, it is characterized in that: be provided with a miniature temperature, pressure monitoring device in the front end tube wall of described endotracheal tube, described miniature, temperature, pressure monitoring device is connected and composed by a miniature temperature probe and a micro pressure probe, be connected with lead respectively on described miniature temperature probe and the micro pressure probe, described lead is drawn from the tail end of described endotracheal tube.
2, bronchus internal environment minisize non-invasive pressure and temp monitoring device as claimed in claim 1 is characterized in that: the tail end edge of described endotracheal tube is set with data acquisition unit, and described data acquisition unit is connected with described lead.
3, bronchus internal environment minisize non-invasive pressure and temp monitoring device as claimed in claim 2, it is characterized in that: described data acquisition unit is connected with a data blood processor by cable, be provided with wireless signal transmitting device in the perhaps described data acquisition unit, described data acquisition unit links to each other with a wireless signal receiving device by the wireless signal passage, and described wireless signal receiving device is connected with a data blood processor by cable.
4, bronchus internal environment minisize non-invasive pressure and temp monitoring device as claimed in claim 1, it is characterized in that: described endotracheal tube is a double-lumen catheter.
5, bronchus internal environment minisize non-invasive pressure and temp monitoring device as claimed in claim 1, it is characterized in that: the arranged outside of described endotracheal tube has at least one tracheal tampon.
6, bronchus internal environment minisize non-invasive pressure and temp monitoring device as claimed in claim 1, it is characterized in that: the body of described micro pressure probe is entrenched in the tube wall of described endotracheal tube, the front end of described micro pressure probe is arranged on the inboard of described endotracheal tube, the body of described miniature temperature probe is chimeric to be arranged in the tube wall of described endotracheal tube, the head of described miniature temperature probe is arranged on the outside of described endotracheal tube, the outer surface of described miniature temperature probe covers and is provided with a surface encapsulation film, the periphery of described surface encapsulation film is connected with the lateral surface of described endotracheal tube, and described lead is embedded in the tube wall of described endotracheal tube.
7, bronchus internal environment minisize non-invasive pressure and temp monitoring device as claimed in claim 1 is characterized in that: described miniature temperature probe is arranged in the tube wall of described endotracheal tube, and the outer surface of described miniature temperature probe is parabolic shape.
8, bronchus internal environment minisize non-invasive pressure and temp monitoring device as claimed in claim 1, it is characterized in that: described endotracheal tube is a double-lumen catheter, be provided with two described miniature, temperature, pressure monitoring devices in the front end tube wall of described double-lumen catheter, one of them miniature temperature, pressure monitoring device is arranged on the left side front end of described double-lumen catheter, and another miniature temperature, pressure monitoring device is arranged on the right side catheter proximal end of described double-lumen catheter.
Priority Applications (1)
Application Number | Priority Date | Filing Date | Title |
---|---|---|---|
CN 200420081304 CN2719220Y (en) | 2004-07-30 | 2004-07-30 | Bronchial environment miniature non-wound pressure-temperature monitoring device |
Applications Claiming Priority (1)
Application Number | Priority Date | Filing Date | Title |
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CN 200420081304 CN2719220Y (en) | 2004-07-30 | 2004-07-30 | Bronchial environment miniature non-wound pressure-temperature monitoring device |
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CN2719220Y true CN2719220Y (en) | 2005-08-24 |
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CN 200420081304 Expired - Lifetime CN2719220Y (en) | 2004-07-30 | 2004-07-30 | Bronchial environment miniature non-wound pressure-temperature monitoring device |
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Cited By (2)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
CN100360077C (en) * | 2004-07-30 | 2008-01-09 | 上海第二医科大学附属仁济医院 | Dimesize non-traumatic monitoring system of pressure and temperature for internal envirnoment or bronchia |
RU2449726C2 (en) * | 2010-05-20 | 2012-05-10 | Георгий Цыренович Дамбаев | Device for diagnostics of tracheobronchial diskinesia |
-
2004
- 2004-07-30 CN CN 200420081304 patent/CN2719220Y/en not_active Expired - Lifetime
Cited By (2)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
CN100360077C (en) * | 2004-07-30 | 2008-01-09 | 上海第二医科大学附属仁济医院 | Dimesize non-traumatic monitoring system of pressure and temperature for internal envirnoment or bronchia |
RU2449726C2 (en) * | 2010-05-20 | 2012-05-10 | Георгий Цыренович Дамбаев | Device for diagnostics of tracheobronchial diskinesia |
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Legal Events
Date | Code | Title | Description |
---|---|---|---|
C14 | Grant of patent or utility model | ||
GR01 | Patent grant | ||
AV01 | Patent right actively abandoned |
Effective date of abandoning: 20080109 |
|
AV01 | Patent right actively abandoned |
Effective date of abandoning: 20080109 |
|
C25 | Abandonment of patent right or utility model to avoid double patenting |