A surgical port is disclosed. The surgical port has a cannular channel. The surgical port also has one or more suture slots in communication with the cannular channel. The surgical port further has a pair of cam grips for each of the one or more suture slots, each pair of cam grips comprising opposing gripping arms configured to allow suture to be pulled through the opposing gripping arms in a direction away from the cannular channel and to resist suture movement in a direction towards the cannular channel.

A suturing device includes a clamshell body having a first side coupled to a second side by a hinge at a hinge end. The first side and the second side each have a cantilevered end opposite the hinge end. The clamshell body is configured to actuate between an open position and a closed position. A suture retainer is positioned within the claim shell body and is configured to receive a suture. An opening is formed in a wall of the of the second side of the clamshell body.

A medical device assembly includes a hinge rod having a first portion and a second portion, and a pedestal is coupled to the second portion of the hinge rod, the pedestal having a top surface, and portions of the pedestal cooperate to define a trough that is configured to hold a first portion of a vessel on the top surface of the pedestal. A retainer is movably coupled to the pedestal, and the retainer has a planar member having a lower surface configured to oppose the top surface of the pedestal. A joint member is coupled to the hinge rod, and a clamp assembly is releasably coupled to the joint member such that when the clamp assembly is in a locked configuration, the hinge rod is not repositionable, and when the clamp assembly is in an unlocked configuration, the hinge rod is repositionable.

A suture package includes a suture housing having a tray with a suture channel, and at least one suture disposed on the suture housing, whereby the suture includes a suture thread disposed within the suture channel of the tray. The package includes a suture straightening assembly including a suture dispensing path for removing the suture thread from the suture housing. The suture straightening assembly includes a first suture thread straightening section configured to apply a first flexing force within a first plane upon the suture thread as the suture thread is drawn along the suture dispensing path, and a second suture thread straightening section configured to apply a second flexing force within a second plane upon the suture thread as the suture thread is drawn along the suture dispensing path. The first and second planes extend along axes that define an angle relative to one another.

Embodiments include a suture management device including a disk shaped body that defines a top surface that faces away from a body of a patient when the suture management device is coupled to a sleeve of an arthroscopic cannula inserted into the body and a bottom surface that faces toward the body when the suture management device is coupled to the arthroscopic cannula. The suture management device can include a connector configured to couple the disk shaped body to an arthroscopic cannula, and a set of retention features positioned along the disk shaped body, each retention feature in the set of retention features configured to releasably secure a suture.

A suturing device includes a clamshell body having a first side coupled to a second side by a hinge at a hinge end. The first side and the second side each have a cantilevered end opposite the hinge end. The clamshell body is configured to actuate between an open position and a closed position. A suture retainer is positioned within the claim shell body and is configured to receive a suture. An opening is formed in a wall of the of the second side of the clamshell body.

Described herein is a simplified placement system and method for a tissue graft anchor by which a surgeon may introduce one or more sutures into a hole in a boney tissue, apply a precise amount of tension to the sutures to advance a soft tissue graft to a desired location, and then advance the anchor into the bone, preferably while maintaining the requisite pre-determined suture tension and without introducing spin to the suture. Particularly preferred embodiments allow for the one-handed operation. To that end, embodiments in which relative axial movement between the inner tensioning device and outer driver device is optionally physically constrained, for example by means of cooperating and/or compressive elements disposed in the respective hub and handle portions, are described herein.

A trans-xiphoid procedure for gaining entry to the chest cavity of a patient, sometimes also referred to herein as a “TRAX” procedure. The procedure may be used for, among other things, mobilization of the mammary arteries and performing coronary artery bypass surgery in which the mammary artery of the patient or other conduit is joined to a coronary artery of the patient, such as the left anterior descending (LAD) coronary artery.

A device for pacemaker lead placement is disclosed. The device has a device tip having a tissue bite area, ferrule holders, and needle tips. The device also has a lead end rest at the distal end, with a pacemaker lead end situated on the lead end rest, the pacemaker lead end having first and second anchor suture holes. The device further has an anchor suture with ferrules at respective ends of the anchor suture, wherein the ferrules of the anchor suture are passed through the anchor suture holes and into communication with the ferrule holders. The device further has one or more tube guides configured to organize and manage sutures during a minimally invasive surgical procedure.