Meniscal repair devices, systems, and methods are provided.

Meniscal repair devices, systems, and methods are provided.

Systems and methods for preventing the seeding of cancerous cells during morcellation of a tissue specimen inside a patient's body and removal of the tissue specimen from inside the patient through a minimally-invasive body opening to outside the patient are provided. One system includes a cut-resistant tissue guard removably insertable into a containment bag. The tissue specimen is isolated and contained within the containment bag and the guard is configured to protect the containment bag and surrounding tissue from incidental contact with sharp instrumentation used during morcellation and extraction of the tissue specimen. The guard is adjustable for easy insertion and removal and configured to securely anchor to the body opening. Protection-focused and containment-based systems for tissue removal are provided that enable minimally invasive procedures to be performed safely and efficiently.

A wound protector and retractor device 1 comprises a sleeve 2, a distal member provided by a distal ring 3 of resilient material and a proximal member provided by a proximal ring 4. The sleeve 2 is led around the ring 3 and is free to move axially relative to the distal ring 3 somewhat in the manner of a pulley. The proximal ring 4 is fixed to the sleeve 2, in this case at the proximal inner end thereof. The sleeve 2 terminates in a handle or gripping portion which is reinforced by a gripping ring 15. The sleeve extends from the proximal ring 4 and the distal ring 3 is contained between inner and outer layers 2a, 2b of the sleeve 2. The resilient distal ring 3 is scrunched up and inserted through the incision 6. The sleeve 2 is then pulled upwardly. On pulling of the sleeve 2 upwardly the outer layer 2b is pulled up while the inner layer 2a is drawn around the proximal ring 3. This results in shortening the axial extent between the proximal ring 4 and the distal ring 3, tensioning the sleeve and applying a retraction force to the margins of the incision 6. As the incision is being retracted the margins are also protected by the sleeve. On retraction, an access port is provided, for example for a surgeon to insert his hand and/or an instrument to perform a procedure. The device may be used as a retractor in open surgery or as a base for a valve/seal to allow it to be used in hand assisted laparoscopic surgery or for instrument access or hand access generally.

An access port is disclosed for use in minimally invasive surgical procedures performed within a patient's abdominal cavity, which includes a body defining a bore configured to guide at least one surgical instrument into the abdominal cavity, and concave and convex anchoring regions for securing the access port relative to the abdominal cavity.

Embodiments of a surgical access port system that comprises a retractor that is adapted for being coupled to a cap and that is particularly useful in natural orifice surgery are described. The retractor comprises an outer ring, wherein the outer ring is configured to be disposed proximate the natural orifice of the patient and substantially surround the orifice; a tubular body; a funnel segment extending between and coupling the outer ring and the tubular body, wherein the funnel segment provides a diametric reduction between the relatively large diameter of the outer ring and the relatively smaller diameter of the tubular body, which is sized to fit within a natural orifice with minimal distention of the orifice; and an inflatable member disposed around the distal end of the tubular body, the inflatable member sized and configured to fit snugly around the tubular body in the deflated condition and to expand against the wall of the natural orifice in the inflated state to thereby stabilize and retain the retractor within the orifice.

The present disclosure generally relates to a system and method for providing transabdominal gastric surgical access system for medical, endoscopic, and surgical instruments through a percutaneous surgically constructed opening. More particularly, it concerns a delivery system and a surgery system having structures that includes a cannula working channel, an internal and external anchor system, a cap and insertion tool for creating an opening, to provide gastric access through at least one port for the insertion of instruments for medical/surgical procedures.

A surgical access device includes a cannula body, an anchor, and a first suture retention mechanism. The cannula body includes a housing and an elongated portion extending distally from the housing. The elongated portion defines a longitudinal axis and a channel extending therethrough. The anchor is disposed in mechanical cooperation with the elongated portion of the cannula body and is longitudinally translatable relative to the elongated portion. The first suture retention mechanism extends laterally from the anchor. A suture-receiving channel is defined between a portion of the suture retention mechanism and a portion of the anchor.

A surgical access device includes a proximal end portion configured to support a seal assembly having an insufflation port. The device includes a cannula tube extending distally from the proximal end portion and having an inner surface that defines a lumen extending longitudinally through the cannula tube. The cannula tube is configured to be inserted distally through a body cavity wall of a patient, and the lumen is configured to guide a surgical instrument shaft distally through the cannula tube for accessing a body cavity of the patient. The device includes a channel formed in the inner surface of the cannula tube. The channel extends longitudinally between a proximal end of the lumen and a distal end of the lumen, and the channel is configured to direct a gas therethrough to or from the insufflation port of the seal assembly while a surgical instrument shaft is disposed within the lumen.

A brain surgery system having a robotic arm for guiding insertion of a retractor into a subject brain. The system includes an imaging system having a radiation source and a detector adapted to output imaging data based on the measured radiation. The system further includes a computer system having a processor and memory. A robotic arm is mounted on the imaging system and is controlled by software. An end effector is attached to the robotic arm and adapted to hold a retractor. The end effector includes a linear slide having a fixed portion adapted to attach to the robotic arm and a movable portion. The linear slide is adapted to move the retractor in a longitudinal direction of the retractor to insert the retractor into the subject brain. The end effector further includes a stand affixed to the linear slide and adapted to hold the retractor.