A suction catheter holder is provided. The holder can include a housing that defines an interior open-space compartment for receiving at least a portion of a suction catheter. The housing can have an elongate structure defined by a longitudinal and lateral axis. The housing can include a base panel having a substantially flat exterior surface, and a plurality of sidewalls, each extending upward from the base to a roof panel having an interior surface that faces, at least in part, an interior surface of the base panel. The housing can include a front sidewall panel extending laterally along the front edges of the base and roof panels, between a pair of longitudinal sidewalls. The front sidewall panel can include an insertion through-hole for receiving the suction catheter and a securing through-hole for retaining the suction catheter in place.

Some embodiments of a medical device anchor system include an anchor device that receives a catheter (or other medical instrument) and secures the catheter in place relative to a skin penetration point. In some embodiments, the anchor device can secure the catheter in an operative position relative to the skin penetration point without use of sutures or skin tapes.

A machine vision based automatic needle cannula inspection system and methods of use. The system comprises of an inspection and control unit, image capture devices (32, 33), light sources (34, 35, 36, 37), a unit that makes the needle cannula (28) and the image capture device(s) (32, 33) rotate relative to each other, and a rejected part removal unit. By means of rotating the needle cannula (28) and image capture devices (32, 33) relatively, a plurality of images captured along the circumferential direction of the needle cannula are directly saved to a computer, the images are then screened, processed and analyzed to fulfill the automatic inspection of multiple quality and technical parameters of the needle cannula without the need to position the bevel area of cannula tip to a specific direction. Inspection parameters and accuracy can be set at any time, the system can automatically record classification and statistics of passed and rejected needle cannulae for query, and the rejected cannulae are removed automatically at next position. All the functions are completed at one work station, and needle cannula tips on both sides can be inspected simultaneously, if needed. Thereby the inspection efficiency and reliability are greatly improved, resulting in extremely extensive application prospects and huge economic values.

Some embodiments of a medical device anchor system include an anchor device that receives a catheter (or other medical instrument) and secures the catheter in place relative to a skin penetration point. In some embodiments, the anchor device can secure the catheter in an operative position relative to the skin penetration point without use of sutures or skin tapes.

Some embodiments of a medical device anchor system include an anchor device that receives a catheter (or other medical instrument) and secures the catheter in place relative to a skin penetration point. In some embodiments, the anchor device can secure the catheter in an operative position relative to the skin penetration point without use of suture or skin tapes.

An ear protector hook system for attaching to a band attached to a mask body and a cannula having two flexible tubes with nasal prongs therebetween. The system includes two ear protector hooks each comprised of a hook shaped structure constructed of four sections attached to each other end to end. A slot extending the length of the hook shaped structure extends from an outer surface of the hook shaped structure to a circular inner bore extending the length of the hook shaped structure to receive either the band attached to a mask body or the flexible tubes attached to the nasal prongs.

An anchoring system secures a catheter to the body of a patient and arrests axial movement of the catheter without impairing fluid flow through the catheter. The anchoring system can include an anchor pad that adheres to the patient's skin and supports a retainer. The retainer can include interengaging structure that moves the retainer between an open and a closed position. When in the open position, the retainer can receive a portion of the catheter and be subsequently moved to the closed position. The interengaging structure can allow the retainer to receive catheters of various sizes. The retainer can include one or more retention mechanisms to further inhibit axial movement of the catheter relative to the retainer when the catheter is secured therein. The anchoring system can include a mount that allows the retainer to rotate relative to the anchor pad.

Some embodiments of a medical device anchor system include an anchor device that receives a catheter (or other medical instrument) and secures the catheter in place relative to a skin penetration point. In some embodiments, the anchor device can secure the catheter in an operative position relative to the skin penetration point without use of sutures or skin tapes.

A device for holding endotracheal tubes includes a bite tube that defines a passage zone for at least one endotracheal tube; a front plate and an adjustable retainer joined to the bite tube, and which form means for limiting displacement of the bite tube in an axial direction towards the interior and exterior of the mouth of the patient, respectively; and means for immobilising at least one endotracheal tube with respect to the bite tube in an axial direction. The device includes a lateral opening along the entire length of the bite tube, the front plate and the adjustable retainer for lateral or transversal introduction of at least one endotracheal tube into the passage zone defined by the bite tube.

A machine vision based automatic needle cannula inspection system and methods of use. The system comprises of an inspection and control unit, image capture devices (32, 33), light sources (34, 35, 36, 37), a unit that makes the needle cannula (28) and the image capture device(s) (32, 33) rotate relative to each other, and a rejected part removal unit. By means of rotating the needle cannula (28) and image capture devices (32, 33) relatively, a plurality of images captured along the circumferential direction of the needle cannula are directly saved to a computer, the images are then screened, processed and analyzed to fulfill the automatic inspection of multiple quality and technical parameters of the needle cannula without the need to position the bevel area of cannula tip to a specific direction. Inspection parameters and accuracy can be set at any time, the system can automatically record classification and statistics of passed and rejected needle cannulae for query, and the rejected cannulae are removed automatically at next position. All the functions are completed at one work station, and needle cannula tips on both sides can be inspected simultaneously, if needed. Thereby the inspection efficiency and reliability are greatly improved, resulting in extremely extensive application prospects and huge economic values.