Abstract: Described herein is an IOP control device for implantation in an eye of a patient, comprising a housing including an inlet port and an outlet port, a fluid flow passageway configured to allow the flow of fluid from the inlet port to the outlet port, and at least one valve anchored within the housing. The at least one valve includes a first side and an opposing second side, and is configured to affect flow through the fluid flow passageway from the inlet port to the outlet port by moving in response to pressure differentials acting on the opposing first and second sides. The at least one valve is remotely adjustable between an active condition increasing resistance to the flow of fluid within the fluid flow passageway and an inactive condition decreasing resistance to the flow of fluid within the fluid flow passageway.

Abstract: Described herein is an IOP control system for implantation in an eye of a patient, comprising a drainage device and a control device. The drainage system includes a housing including an inlet port and an outlet port, a fluid flow passageway extending from the inlet port to the outlet port to allow the flow of fluid therethrough, and at least one valve disposed within the housing. The at least one valve includes a first side and an opposing second side, and is configured to affect flow through the fluid flow passageway from the inlet port to the outlet port by moving in response to pressure differentials acting on the opposing sides. The control device comprises an actuator including an activated mode and a deactivated mode, and the actuator in the activated mode is configured to selectively adjust flow through the drainage device in response to changes in intraocular pressure.

Abstract: Described herein is an IOP control system for implantation in an eye of a patient, comprising a drainage device and a control device. The drainage system includes a housing including an inlet port and an outlet port, a fluid flow passageway extending from the inlet port to the outlet port to allow the flow of fluid therethrough, and at least one valve disposed within the housing. The at least one valve includes a first side and an opposing second side, and is configured to affect flow through the fluid flow passageway from the inlet port to the outlet port by moving in response to pressure differentials acting on the opposing sides. The control device comprises an actuator including an activated mode and a deactivated mode, and the actuator in the activated mode is configured to selectively adjust flow through the drainage device in response to changes in intraocular pressure.

Abstract: Described herein is an IOP control device for implantation in an eye of a patient, comprising a housing including an inlet port and an outlet port, a fluid flow passageway configured to allow the flow of fluid from the inlet port to the outlet port, and at least one valve anchored within the housing. The at least one valve includes a first side and an opposing second side, and is configured to affect flow through the fluid flow passageway from the inlet port to the outlet port by moving in response to pressure differentials acting on the opposing first and second sides. The at least one valve is remotely adjustable between an active condition increasing resistance to the flow of fluid within the fluid flow passageway and an inactive condition decreasing resistance to the flow of fluid within the fluid flow passageway.

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: 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: 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 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 pellet loading apparatus has a pellet housing configured to receive and hold a plunger so that a cavity is formed by an interior surface of the pellet housing and the plunger. A pellet is located or formed in the cavity. A dispensing chamber housing is located in a disposable drug delivery device. The dispensing chamber housing is configured to couple with the pellet housing so that the plunger and the pellet can be loaded into the dispensing chamber housing.

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 pellet loading apparatus has a pellet housing configured to receive and hold a plunger so that a cavity is formed by an interior surface of the pellet housing and the plunger. A pellet is located or formed in the cavity. A dispensing chamber housing is located in a disposable drug delivery device. The dispensing chamber housing is configured to couple with the pellet housing so that the plunger and the pellet can be loaded into the dispensing chamber housing.

Abstract: A method of injecting a mixture into an eye includes: providing the mixture in a dispensing chamber with an air gap located between the mixture and an interior surface of a dispensing chamber housing, when the mixture and dispensing chamber housing are near room temperature; bringing the dispensing chamber housing and mixture to a temperature range, other than near room temperature, at which the mixture expands and is in a more liquid state; maintaining air in a needle after the mixture expands and prior to an injection; selecting a drug release rate; and injecting the mixture so as to form a shape with a surface area that results in the selected drug release rate.