The present invention relates to systems and methods for controlling flow through the urinary bladder and, more specifically, systems and methods for controlling continuous bladder irrigation after surgical treatment of lower urinary tract disorders. The control system for continuous bladder irrigation includes a catheter having a first port though which a first fluid enters a bladder and a second port through a second fluid exits the bladder; a first flow speed sensor for measuring a first speed of the first fluid; a second flow speed sensor for measuring a second speed of the second fluid; a control unit for sending, based on the first and second speeds, a warning signal of an abnormality in infusing the first fluid into the bladder and in draining the second fluid from the bladder.

Various irrigation fluid containment systems and components are disclosed. In some embodiments, the irrigation fluid containment system comprises a medical kit and/or an irrigation kit. In some embodiments, the irrigation fluid containment system comprises a medical basin and/or an irrigation basin. In some embodiments, the irrigation fluid containment system comprises an irrigation shield. In some embodiments, the irrigation fluid containment system comprises a suction hose.

An apparatus for collecting a nasal specimen includes a device body with a nozzle at a distal end of the device body. The nozzle is configured to interface with a nasal cavity. The apparatus further includes an irrigation path and a collection path within the device body. The collection path may be separate from the irrigation path. The irrigation path is configured to direct a fluid from an irrigation chamber into the nasal cavity in order to dislodge a sample from the nasal cavity. When the fluid flows back out of the nasal cavity, the collection path is configured to direct at least a portion of the fluid and the sample dislodged from the nasal cavity into a collection chamber.

A nasal irrigation diagnostic assembly comprising an irrigation device including a fluid collection portion structured to retain a biological sample, in the form of waste solution from the nasal cavity resulting from irrigation. A detection member disposed on said irrigation device is exposed to the biological sample and is structured to determine the existence of at least one analyte within the biological sample of the waste solution. The detection member comprises a plurality of detection zones individually structured to analyze the biological sample upon engagement therewith, wherein said plurality of zones include at least a reaction zone and a detection zone, which respectively include reagents cooperatively and collectively formulated to detect the existence of the at least one analyte within biological sample of the waste solution. A control zone may also be included to indicate the intended operability of at least the detection member.

Percutaneous musculoskeletal lavage devices, and procedures for simultaneous therapeutic and diagnostic purposes, performed with a needle or catheter and various combinations of a syringe, reciprocating syringe, stop-cock, check valves, depth indicator, compressive sleeve or brace, and specialty catheters, provided individually or in a kit. The lavage fluid can be analyzed for factors of medical interest and used to determine personalized treatment, and has intrinsic medical benefit by virtue of clearing the tissues of noxious substances in an enhanced fashion.

A trans-anal irrigation (TAI) device has a pump base unit, an irrigation fluid reservoir, a wireless electronic controller, fluid tubing, and a disposable rectal catheter in fluid communication with the tubing. The rectal catheter has a retention balloon and a waste control valve. The fluid tubing contains two or three separate lumens for irrigation fluid and retention balloon inflation/deflation and optionally for waste control valve actuation. None of the lumens ever communicates with any other lumen. A hydraulic control circuit has a pump that pumps in one direction only but, with suitable control valves, is able to pump water to and from the retention balloon and to and from an optional waste control valve. A water temperature sensor is mounted in the pump base unit at a thin-wall section. The temperature sensor sends a signal to a controller which provides an indication of whether the water temperature is suitable for use.

A urinary bladder irrigation device includes: a first pipe, a second pipe, a third pipe, a liquid supply member, a liquid collection member, a detection member, and an elevation member. The first pipe has a first opening at one end thereof. The second pipe has a second opening at one end thereof. The third pipe has an end connected to another end of the first pipe and another end of the second pipe and has a third opening at another end thereof. The liquid supply member is connected to the first opening. The liquid collection member is connected to the second opening. The detection member is positioned in the second pipe. The elevation member accommodates the detection member.

An ear disimpactor for disimpacting material impacted in an ear canal and against a tympanic membrane, is disclosed. The impacted material comprises cerumen, insects, and other debris. The ear disimpactor comprises a housing, a warm water irrigation unit, and a suction unit. The housing comprises an ear speculum attached to an outer surface of the housing, a motorized auger comprising a drill bit extending from the motorized auger to a tip of the ear speculum, a warm water line extending from the tip of the ear speculum and across a length of the housing, and a suspension suction tube extending from the tip of the speculum and across the length of the housing. The warm water irrigation unit provides warm water to the ear canal through the warm water line and the suction unit sucks out suspension from the ear canal.

A system and method to irrigate a user's auditory canal. A fluid can be dispensed from a reservoir through a fluid path and out through openings of a delivery element into the auditory canal. A pump may be used to facilitate the process of dispensing the fluid. The fluid can be delivered to the user's auditory canal for a predetermined period of time. Such a time period may be user selectable. The discharge from the irrigation is removed from the user's auditory canal via a discharge port located on the delivery element. The discharge exits the delivery element and proceeds to a discharge reservoir via a discharge path. A vacuum may be used to generate a negative pressure to facilitate the removal of the discharge from the auditory canal.

An apparatus for supporting an extremity during tissue irrigation and debridement and containing and capturing fluid and tissue debris resulting therefrom includes an extremity-supporting base and barrier shroud. The apparatus can be used to control drainage of fluid and tissue debris during irrigation and debridement. The apparatus supports and encloses a patient extremity, such as an arm or a leg. The base has a length, proximal end (i.e., nearest the patient's body), and distal end (i.e., farthest from the patient's body). The base may comprise an open-cell foam that is non-collapsible to provide a support surface with a fixed length. The shroud has a top portion, bottom portion, and shroud drainage opening. The shroud can be selectively moveable between a first position in which the support surface is unobstructed to facilitate placement of an extremity thereon and a second position in the shroud at least partially encloses the extremity.