Abstract: Provided herein is a stabilized oxygen transport matrix that includes a reversible oxygen binding protein, such as hemoglobin, immobilized throughout the stabilized oxygen transport matrix. The stabilized oxygen transport matrix is used to transport oxygen and can be used as an oxygen transport region and a reaction region of an analyte sensor, such as an implantable glucose sensor. The reversible binding protein can also function as an oxygen probe within the analyte sensor.

Abstract: Provided herein is a stabilized oxygen transport matrix that includes a reversible oxygen binding protein, such as hemoglobin, immobilized throughout the stabilized oxygen transport matrix. The stabilized oxygen transport matrix is used to transport oxygen and can be used as an oxygen transport region and a reaction region of an analyte sensor, such as an implantable glucose sensor. The reversible binding protein can also function as an oxygen probe within the analyte sensor.

Abstract: Disclosed herein are embodiments of methods and techniques for measuring oxygen levels of an implant. The implant can have a plurality of oxygen-sensitive microparticles incorporated throughout. The oxygen-sensitive microparticles can receive light and emit excitation light in response. The levels of excitation light emitted can be directly related to oxygen concentration in the implant.

Abstract: Provided herein is a stabilized oxygen transport matrix that includes a reversible oxygen binding protein, such as hemoglobin, immobilized throughout the stabilized oxygen transport matrix. The stabilized oxygen transport matrix is used to transport oxygen and can be used as an oxygen transport region and a reaction region of an analyte sensor, such as an implantable glucose sensor. The reversible binding protein can also function as an oxygen probe within the analyte sensor.

Abstract: Provided herein is a stabilized oxygen transport matrix that includes a reversible oxygen binding protein, such as hemoglobin, immobilized throughout the stabilized oxygen transport matrix. The stabilized oxygen transport matrix is used to transport oxygen and can be used as an oxygen transport region and a reaction region of an analyte sensor, such as an implantable glucose sensor. The reversible binding protein can also function as an oxygen probe within the analyte sensor.

Abstract: This invention relates to optomechanical systems and methods for altering, modifying or disrupting a target object. Such systems and methods are used for, for example, ablating the endogenous nucleus in a cell.

Abstract: Disclosed herein are embodiments of methods and techniques for measuring oxygen levels of an implant. The implant can have a plurality of oxygen-sensitive microparticles incorporated throughout. The oxygen-sensitive microparticles can receive light and emit excitation light in response. The levels of excitation light emitted can be directly related to oxygen concentration in the implant.

Abstract: An apparatus and method for providing a gradient strain to an extracellular matrix to induce mechanotransduction. The gradient strain can be produced by adhering the extracellular matrix to a post and the walls of a sample holder, and then rotating the post and the sample holder. This strain can result in increased stiffness of the extracellular matrix with very little loss of pore size.

Abstract: Provided herein is a stabilized oxygen transport matrix that includes a reversible oxygen binding protein, such as hemoglobin, immobilized throughout the stabilized oxygen transport matrix. The stabilized oxygen transport matrix is used to transport oxygen and can be used as an oxygen transport region and a reaction region of an analyte sensor, such as an implantable glucose sensor. The reversible binding protein can also function as an oxygen probe within the analyte sensor.

Abstract: Provided herein is a stabilized oxygen transport matrix that includes a reversible oxygen binding protein, such as hemoglobin, immobilized throughout the stabilized oxygen transport matrix. The stabilized oxygen transport matrix is used to transport oxygen and can be used as an oxygen transport region and a reaction region of an analyte sensor, such as an implantable glucose sensor. The reversible binding protein can also function as an oxygen probe within the analyte sensor.

Abstract: An apparatus and method for providing a gradient strain to an extracellular matrix to induce mechanotransduction. The gradient strain can be produced by adhering the extracellular matrix to a post and the walls of a sample holder, and then rotating the post and the sample holder. This strain can result in increased stiffness of the extracellular matrix with very little loss of pore size.

Abstract: This invention relates to optomechanical systems and methods for altering, modifying or disrupting a target object. Such systems and methods are used for, for example, ablating the endogenous nucleus in a cell.

Abstract: A microscope fluid applicator includes an immersion fluid reservoir for storing immersion fluid and an applicator tip coupled to the immersion fluid reservoir. The microscope fluid applicator is releasably engaged to a moveable turret on a microscope. The microscope fluid applicator may be secured to an objective lens port on a turret of a microscope via threads. Immersion fluid is ejected from the applicator tip onto a sample holder. The turret may be rotated to place an immersion fluid objective into the immersion fluid. The sample may then be viewed through the immersion fluid. Any excess immersion fluid that is dispensed from the applicator tip may be collected in a fluid collector to prevent contamination of the microscope optics and other components.

Abstract: Provided herein is a stabilized oxygen transport matrix that includes a reversible oxygen binding protein, such as hemoglobin, immobilized throughout the stabilized oxygen transport matrix. The stabilized oxygen transport matrix is used to transport oxygen and can be used as an oxygen transport region and a reaction region of an analyte sensor, such as an implantable glucose sensor. The reversible binding protein can also function as an oxygen probe within the analyte sensor.

Abstract: Provided herein is a stabilized oxygen transport matrix that includes a reversible oxygen binding protein, such as hemoglobin, immobilized throughout the stabilized oxygen transport matrix. The stabilized oxygen transport matrix is used to transport oxygen and can be used as an oxygen transport region and a reaction region of an analyte sensor, such as an implantable glucose sensor. The reversible binding protein can also function as an oxygen probe within the analyte sensor.

Abstract: Provided herein is a stabilized oxygen transport matrix that includes a reversible oxygen binding protein, such as hemoglobin, immobilized throughout the stabilized oxygen transport matrix. The stabilized oxygen transport matrix is used to transport oxygen and can be used as an oxygen transport region and a reaction region of an analyte sensor, such as an implantable glucose sensor. The reversible binding protein can also function as an oxygen probe within the analyte sensor.