Surgical decompression and irrigation apparatus and method

An apparatus for gastrointestinal decompression and irrigation of a patient comprising:

• a tube having a distal end which is inserted into the intestine and a proximal end which is located outside the patient, the tube having a wall which surrounds a plurality of longitudinally extending lumens;
• a guide wire lumen for housing a guide wire having an attribute of changeable flexibility to assist in advancing the tube, the guidewire preventing kinking of the tube during insertion into the patient and for stiffening the tube;
• a suction lumen connected to a suction means located exteriorly in relation to the patient;
• one or more pores extending laterally through the wall of the tube, capable of delivering irrigation fluid and for syphoning the contents of the patient's intestine;
• an irrigation lumen connected to an irrigation reservoir for delivering the irrigation fluid to the one or more pores;
• an electrical lumen in communication with an electrical supply means;
• and
• one or more suction openings extending from the suction lumen to the irrigation lumen for ducting irrigation fluid or gastrointestinal content and for avoiding plugging of the pores by particulate matter or by a stomach lining when the stomach is aspirated.

An apparatus for surgical decompression and irrigation of a patient comprising:

• a tube having a distal end which is inserted into a body cavity, the tube having a proximal end which is located outside the patient, the tube having a wall which surrounds a plurality of longtitudinally extending lumens;
• a suction lumen connected to a suction means located exteriorly in relation to the patient;
• one or more pores extending laterally through the wall of the tube capable of delivering irrigation fluid, for syphoning the contents of the patient's cavity;
• an irrigation lumen connected to irrigation means located exteriorly in relation to the patient;
• one or more openings extending from the suction lumen to the irrigation lumen for ducting irrigation fluid or the contents of the cavity to be drained, and for avoiding plugging of the apparatus by particulate matter or by a cavity lining when the cavity is being aspirated;
• a manometric device in communication with the suction means, the manometric device having a vacuum indicator and first and second pre-set stops for maintaining intermittent vacuum buildup and relief;
• a suction control valve in communication with the suction means, the valve cutting off the suction means when the vacuum indicator contacts the first stop;
• an air vent valve and a fluid flow valve operable in response to the manometric device, the suction becoming alleviated as air and/or a fluid enters the apparatus, the vacuum indicator then moving in an opposite direction toward the second stop until contact therewith, the vacuum in the decompressed organ or cavity then approximating a pre-set maximum level indicated by the second stop;
• the air vent and fluid flow valves then being closed upon contact of the indicator with the second stop, thereby reintroducing the suction means to the apparatus so that vacuum may again fall and the indicator may move toward the first electrode;
• the vacuum indicator being able to move back and forth intermittently between the stops, the apparatus thereby permitting increasing or decreasing vacuum in the system by moving the pre-set stops in relation to each other by clockwise or counter-clockwise means for moving, wherein
• the means for moving comprise a rotary ring associated with each stop, thereby allowing the presetting of a range of vacuum boundaries arbitrarily.

An apparatus for surgical decompression and irrigation of a patient's bodily organ or cavity comprising:

• a suction means including a first suction conduit fluidly communicating with a suction line of a catheter placed in the patient's organ or cavity;
• a container for collecting material;
• a second suction conduit fluidly communicating between the container and a suction source;
• a vacuum sensor for detecting a level of negative pressure;
• and
• a vacuum controller-indicator, whereby when the vacuum is applied to the second conduit, a vacuum condition is generated in the second suction conduit and conveyed to the container which is hermetically isolated from ambient atmosphere and fluidly communicated with the second suction conduit, so that any pressure/vacuum change in the patient's organ or cavity or applied vacuum level will cause consequential changes in the pressure level in the first suction conduit, the container, and the second suction conduit;
• wherein a vacuum change in either suction conduit or suction source or the reservoir communicates a signal to the vacuum controller-indicator so that the vacuum condition can be maintained in isolation from the vacuum source, thereby avoiding continuous operation of a pump motor connected to the vacuum source.

An apparatus for surgical decompression and irrigation of a patient's bodily organ or cavity comprising:

• a suction means including a first suction conduit fluidly communicating with a suction line of a catheter placed in the patient's organ or cavity;
• a container for collecting material;
• a second suction conduit fluidly communicating between the container and a suction source;
• a vacuum sensor for detecting a level of negative pressure;
• and
• a vacuum controller-indicator, whereby when the vacuum is applied to the second conduit, a vacuum condition is generated in the second suction conduit and conveyed to the container which is hermetically isolated from ambient atmosphere and fluidly communicated with the second suction conduit, so that any pressure/vacuum change in the patient's organ or cavity or applied vacuum level will cause consequential changes in the pressure level in the first suction conduit, the container, and the second suction conduit;
• wherein a vacuum change in either suction conduit or suction source or the reservoir communicates a signal to the vacuum controller-indicator so that the vacuum condition can be maintained in isolation from the vacuum source, thereby avoiding continuous operation of a pump motor connected to the vacuum source;
• wherein the vacuum controller-indicator is in communication with the vacuum sensor;
• the vacuum controller being represented as a manometric device having an arrow which moves rotationally in response to vacuum sensed within the suction means;
• the direction of rotational movement of the arrow being determined by the vacuum condition in the suction means, so that the arrow moves in one direction when the vacuum in the suction means builds and moves in the opposite direction as the vacuum in the suction means is alleviated;
• wherein the arrow is communicated with a vibration dampening means for reducing oscillations of the indicator and for resisting abrupt pressure changes within the suction means;
• wherein the manometric device of the vacuum controller has mounted rotary rings capable of sliding clockwise and counter-clockwise;
• a first rotary ring being associated with a first stop-electrode, so that the rotational movement of the said first ring will result in a rotational movement of the first stop-electrode, thereby pre-setting the level of a desired maximum vacuum threshold;
• a second rotary ring being associated with a second stop-electrode, so that the rotational movement of the second electrode will result in a rotational movement of the second stop-electrode, thereby allowing pre-setting of the boundary of the desired minimum vacuum level;
• wherein the vacuum controller indicator has visual indicators;
• wherein the first stop-electrode is electronically communicated with a first indicator, the second stop-electrode communicating with a second indicator.

An apparatus for surgical decompression and irrigation of a patient's bodily organ or cavity comprising:

• a suction means including a first suction conduit fluidly communicating with a suction line of a catheter placed in the patient's organ or cavity;
• a container for collecting material;
• a second suction conduit fluidly communicating between the container and a suction source;
• a vacuum sensor for detecting a level of negative pressure;
• and
• a vacuum controller-indicator, whereby when the vacuum is applied to the second conduit, a vacuum condition is generated in the second suction conduit and conveyed to the container which is hermetically isolated from ambient atmosphere and fluidly communicated with the second suction conduit, so that any pressure/vacuum change in the patient's organ or cavity or applied vacuum level will cause consequential changes in the pressure level in the first suction conduit, the container, and the second suction conduit;
• wherein a vacuum change in either suction conduit or suction source or the reservoir communicates a signal to the vacuum controller-indicator so that the vacuum condition can be maintained in isolation from the vacuum source, thereby avoiding continuous operation of a pump motor connected to the vacuum source, wherein:
• the second suction conduit has passageways communicating fluidly with the reservoir and the vacuum source;
• the passageways having juxtaposed valves communicating with a valve controller;
• the valve controller being in communication with a timer, the arrow and stop-cocks of the manometric device;
• so that when the arrows moves axially under the influence of the vacuum in the suction means towards the first stop-electrode and when the vacuum magnitude in the suction means reaches a desired maximum cut-off vacuum level determined by the position of the first stop-electrode, the arrow contacts the first stop-electrode and in response to this contact, the first indicator is energized and the second indicator is energized;
• whereupon the valve controller means and the timer are activated;
• wherein the valve controller means closes the valves of the suction means and terminates fluid communication and thereby the vacuum communicated from the external vacuum source to the suction conduit means, so that despite termination of the external vacuum source the suction process is continued through vacuum suction conduits already generated in the receiver and an intrinsic vacuum condition is maintained as long as there are no pressure changes in the organ, reservoir and the passageways interconnected therewith.

An apparatus for surgical decompression and irrigation of a patient's bodily organ or cavity comprising:

• a suction means including a first suction conduit fluidly communicating with a suction line of a catheter placed in the patient's organ or cavity;
• a container for collecting material;
• a second suction conduit fluidly communicating between the container and a suction source;
• a vacuum sensor for detecting a level of negative pressure;
• and
• a vacuum controller-indicator, whereby when the vacuum is applied to the second conduit, a vacuum condition is generated in the second suction conduit and conveyed to the container which is hermetically isolated from ambient atmosphere and fluidly communicated with the second suction conduit, so that any pressure/vacuum change in the patient's organ or cavity or applied vacuum level will cause consequential changes in the pressure level in the first suction conduit, the container, and the second suction conduit;
• wherein a vacuum change in either suction conduit or suction source or the reservoir communicates a signal to the vacuum controller-indicator so that the vacuum condition can be maintained in isolation from the vacuum source, thereby avoiding continuous operation of a pump motor connected to the vacuum source, wherein
• the second suction conduit has passageways communicating fluidly with the reservoir and the vacuum source;
• the passageways having juxtaposed valves communicating with a valve controller;
• the valve controller being in communication with a timer, the arrow and stop-electrodes of the manometric device;
• so that when the vacuum condition in the suction means is relieved, the arrow moves towards the second stop-electrode;
• and
• when the vacuum value in the suction means reaches the desired minimum cut-off vacuum level determined by the position of the second stop-electrode, the arrow contacts the second stop-electrode, and in response to this contact, the first indicator is deactivated and the second indicator is energized;
• and
• the valves of the suction means are opened, thereby communicating the vacuum in the suction means from the external vacuum source.