Abstract: Disclosed herein are devices and methods related to implants for treating one or more physiological conditions of the eye. Some embodiments disclosed herein include an expandable ocular implant for implanting in an eye. The expandable implant can include an implant having an elongate tubular body and an expandable sheath securely adapted to a part of the implant. Some embodiments of the expandable sheath can have at least one expandable feature that can assist the expandable sheath in forming a compact and an expanded configuration.

Abstract: Devices, systems, and methods for treating damaged or diseased valves are disclosed. A representative embodiment includes an elongated shaft having a longitudinal axis, a proximal portion, and a distal portion, and a dissection arm at the distal portion. The dissection arm can have a longitudinal axis and be moveable between a low-profile state and a deployed state. In the deployed state, a portion of the arm can flex outwardly away from the longitudinal axis of the shaft. The arm is configured to be deployed within a space within a vessel wall such that, as the arm moves from the low-profile state to the deployed state, the arm pushes against vessel wall tissue at a periphery of the space, thereby separating tissue at the periphery to form a dissection pocket having a predetermined shape.

Abstract: A delivery system is disclosed which can be used to deliver an ocular implant into a target location within the eye via an ab interno procedure. In some embodiments, the implant can provide fluid communication between the anterior chamber and the suprachoroidal or supraciliary space while in an implanted state. The delivery system can include a proximal handle component and a distal delivery component. In addition, the proximal handle component can include an actuator to control the release of the implant from the delivery component into the target location in the eye.

Abstract: Devices, systems, and methods are disclosed for measuring, capturing, and modifying the motion of a body, for providing visual comparisons, metrics of comparison, and for generating motion standards. Motion standards may be manually or algorithmically modified to a different desired motion standard. The motion standards may be generated during motion capture and may be used as references for comparing amongst other motion standards or captured motions. Comparisons may generally be used for training and improving upon motions, such as athletic related motions, rehabilitation related motions, and the like. In certain embodiments data capture is done primarily by sensor units worn on a body which communicate amongst each other and with a secondary processing unit, which analyzes the data, provides means of comparing and modifying a captured motion, and which stores or relays such data to a tertiary device, such as a remote database.

Abstract: A delivery system is disclosed which can be used to deliver an ocular implant into a target location within the eye via an ab interno procedure. In some embodiments, the implant can provide fluid communication between the anterior chamber and the suprachoroidal or supraciliary space while in an implanted state. The delivery system can include a proximal handle component and a distal delivery component. In addition, the proximal handle component can include an actuator to control the release of the implant from the delivery component into the target location in the eye.

Abstract: A delivery system is disclosed which can be used to deliver an ocular implant into a target location within the eye via an ab interno procedure. In some embodiments, the implant can provide fluid communication between the anterior chamber and the suprachoroidal or supraciliary space while in an implanted state. The delivery system can include a proximal handle component and a distal delivery component. In addition, the proximal handle component can include an actuator to control the release of the implant from the delivery component into the target location in the eye.

Abstract: A delivery system is disclosed which can be used to deliver an ocular implant into a target location within the eye via an ab interno procedure. In some embodiments, the implant can provide fluid communication between the anterior chamber and the suprachoroidal or supraciliary space while in an implanted state. The delivery system can include a proximal handle component and a distal delivery component. In addition, the proximal handle component can include an actuator to control the release of the implant from the delivery component into the target location in the eye.

Abstract: Disclosed are devices, methods and systems for treatment of eye disease, including open angle glaucoma and narrow angle glaucoma. Implants are described herein that create a directed flow field, such as between the anterior chamber and either the supraciliary space or suprachoroidal space. In addition, the implant can include a variety of features, including extruded features, such as rings and pegs, which can assist in preventing ocular tissue from collapsing onto the implant and occluding fluid pathways.

Abstract: Disclosed herein are devices and methods related to implants for treating one or more physiological conditions of the eye. Some embodiments disclosed herein include an expandable ocular implant for implanting in an eye. The expandable implant can include an implant having an elongate tubular body and an expandable sheath securely adapted to a part of the implant. Some embodiments of the expandable sheath can have at least one expandable feature that can assist the expandable sheath in forming a compact and an expanded configuration.

Abstract: A delivery system is disclosed which can be used to deliver an ocular implant into a target location within the eye via an ab interno procedure. In some embodiments, the implant can provide fluid communication between the anterior chamber and the suprachoroidal or supraciliary space while in an implanted state. The delivery system can include a proximal handle component and a distal delivery component. In addition, the proximal handle component can include an actuator to control the release of the implant from the delivery component into the target location in the eye.

Abstract: A direct visualization (DV) system and methods for measuring one or more anatomical features of the eye, including a depth of the iridocorneal angle of the eye. The DV system can include a wire extending distally from a handle with the wire having one or more indicators for measuring anatomical features of the eye. The DV system can be deployed into the eye and used with minimal trauma to ocular tissues. Furthermore, the DV system can be used independently or alongside other ocular instruments, such as instruments having indicators corresponding to the DV system for correctly implanting ocular implants without the use of a gonio lens.