Abstract: An implantable device for mechanically stimulating the trabecular meshwork is disclosed. The device is implanted in the eye adjacent the trabecular meshwork. The device imparts mechanical stimulating in the form of vibrations or movement to the trabecular meshwork. The imparted mechanical stimulation causes the trabecular meshwork to move in a manner that produces a pumping action to remove aqueous from the anterior chamber of the eye.

Abstract: A method of manufacturing a valve for a fluid system is described herein. The method comprises determining a target cracking pressure for the valve of the fluid system, providing an inner wall having a first height and an outer wall having a second height, the first height varying from the second height by a height differential, and attaching a flexible membrane to the outer wall at the second height, wherein a central zone of the flexible membrane is in contact with the inner wall at the first height and the inner wall biases the flexible membrane from a neutral condition. The height differential is selected to provide resistance to displacement from the inner wall until pressure acting on the membrane exceeds the target cracking pressure.

Abstract: In one embodiment, an apparatus, includes: a mandrel; an expansion cylinder, comprising: opposite first and second ends; an inner circumferential surface extending between the ends and characterized by an inner diameter, the inner circumferential surface defining a hollow cavity; an outer circumferential surface extending between the ends and characterized by an outer diameter that is greater than the inner diameter; and a plurality of slots extending from the inner circumferential surface to the outer circumferential surface and latitudinally oriented between the ends; and one or more base plates configured to engage one of the ends of the expansion cylinder. In another embodiment, a method includes: arranging an expansion cylinder inside a test cylinder; arranging a mandrel inside the expansion cylinder; applying a force to the mandrel for exerting a radial force on the expansion cylinder; and detecting one or more indicia of structural failure of the test cylinder.

Abstract: Described herein is a treatment device for the drainage of fluid within an eye of a patient. The treatment device comprises a drainage tube and a flow system in fluid communication with the drainage tube. The drainage tube has a lumen and comprises an inlet tube portion and an outlet tube portion, and is configured to convey aqueous humor through the lumen from an anterior chamber of the eye to a suprachoroidal space of the eye. The inlet tube portion extends from the anterior chamber to the flow system, and the outlet tube portion is flexible to conform to the curvature of the suprachoroidal space and extends from the valve system to the suprachoroidal space. The flow system is configured to control intraocular pressure by throttling flow rates of the aqueous humor through the drainage tube.

Abstract: A glaucoma drainage device has an active valve configured to be located between an anterior chamber of an eye and a drainage location, a power source coupled to the active valve, and a controller coupled to the power source. A first pressure sensor is located in fluid communication with the anterior chamber, a second pressure sensor is located in the drainage location, and a third pressure sensor located remotely from the first and second pressure sensors. The controller reads the first, second, and third pressure sensors once during a period of time and adjusts the active valve to control intraocular pressure.

Abstract: An implantable sensor assembly sized for insertion within an eye of an average human is disclosed. The sensor assembly comprises a sensor and an antenna system coupled to the sensor, wherein the antenna system is pliable between an expanded condition and an unexpanded condition, and the expanded condition has a predetermined shape configured to interface with tissue within the eye in a manner that stabilizes the sensor assembly.

Abstract: A method of manufacturing a valve for a fluid system is described herein. The method comprises determining a target cracking pressure for the valve of the fluid system, providing an inner wall having a first height and an outer wall having a second height, the first height varying from the second height by a height differential, and attaching a flexible membrane to the outer wall at the second height, wherein a central zone of the flexible membrane is in contact with the inner wall at the first height and the inner wall biases the flexible membrane from a neutral condition. The height differential is selected to provide resistance to displacement from the inner wall until pressure acting on the membrane exceeds the target cracking pressure.

Abstract: A method to perform high resolution tissue ablation including the steps of forming a beam to deliver optical energy and providing an energy dissipating material is provided. The steps of selecting an area of interest in a target tissue and placing the energy dissipating material adjacent to the area of interest may be included. The steps of directing the beam to the area of interest and scanning the beam across the area of interest to ablate the target tissue may be further included. Also provided is an apparatus and a system for high resolution tissue ablation including a beam to provide optical energy and an injector for placing an energy dissipating material adjacent to an area of interest. Further, the apparatus and system may include at least a mirror and a lens for directing the beam to the area of interest and scanning the beam to ablate target tissue.

Abstract: A punctal plug is disclosed, wherein the punctal plug includes a body portion and a retaining portion. The body portion is defined by an open distal end, an open proximal end and a wall portion. The wall portion further includes at least one window extending therethrough. The retaining flange is configured to have an outer periphery that is larger than the outer periphery of the body portion. A method of delivering a therapeutic agent to a patient using a punctal plug is also disclosed.

Abstract: A method to perform high resolution tissue ablation including the steps of forming a beam to deliver optical energy and providing an energy dissipating material is provided. The steps of selecting an area of interest in a target tissue and placing the energy dissipating material adjacent to the area of interest may be included. The steps of directing the beam to the area of interest and scanning the beam across the area of interest to ablate the target tissue may be further included. Also provided is an apparatus and a system for high resolution tissue ablation including a beam to provide optical energy and an injector for placing an energy dissipating material adjacent to an area of interest. Further, the apparatus and system may include at least a mirror and a lens for directing the beam to the area of interest and scanning the beam to ablate target tissue.

Abstract: A punctal plug is disclosed, wherein the punctal plug includes a body portion and a retaining portion. The body portion is defined by an open distal end, an open proximal end and a wall portion. The wall portion further includes at least one window extending therethrough. The retaining flange is configured to have an outer periphery that is larger than the outer periphery of the body portion. A method of delivering a therapeutic agent to a patient using a punctal plug is also disclosed.

Abstract: A glaucoma drainage device has an active valve configured to be located between an anterior chamber of an eye and a drainage location, a power source coupled to the active valve, and a controller coupled to the power source. A first pressure sensor is located in fluid communication with the anterior chamber, a second pressure sensor is located in the drainage location, and a third pressure sensor located remotely from the first and second pressure sensors. The controller reads the first, second, and third pressure sensors once during a period of time and adjusts the active valve to control intraocular pressure.

Abstract: A sleeve for encircling a conventional ice chest provides opposed panels for supporting indicia. The first end of each of the panels are interconnected with a first expandable member and the second end of each of the panels are interconnected with a second expandable member. Upon mounting of the sleeve on the ice chest, the expandable members are expanded and subsequently contract about the ice chest to retain the sleeve in place. Openings in the first and second expandable members accommodate pass through of handles attached to the ice chest. Because of the first and second expandable members, the sleeve can be mounted on ice chests of different girth and yet be retained in place.

Abstract: An expandable wrapper for an ice chest includes fastening elements at opposed ends for overlapping and securing the ends to one another. The wrapper is of expandable material and in combination with the fastening means will accommodate ice chests having a large range of girth dimensions. Preferably, the material is receptive to printing of words, logos and designs to suit a user's preferences and to personalize the wrapped ice chest. In a variant, the wrapper may be a sleeve slidable mounted on the ice chest and of expandable/elastic material to accommodate the difference in girth between the bottom and the upper end of the ice chest as well as to accommodate ice chests of different sizes.