Abstract: In one embodiment, a system for detecting an analyte in a bodily fluid sample includes an electrochemical biosensor, the electrochemical biosensor configured to receive the bodily fluid sample, test for the analyte, and produce an analyte level for the analyte. The system further includes a mediator, the mediator configured to provide for the testing of the analyte by facilitating electron exchange between the analyte and the biosensor. The system further includes an oxygen tension reducing agent, the oxygen tension reducing agent reducing interference of oxygen with the operation of the mediator.

Abstract: A method and device for positioning an expandable support in a blood vessel is disclosed herein. The device may include a handle, a catheter assembly, a core wire, and an expandable support. The expandable support may be used to position the device relative to the arteriotomy, as well as to provide temporary hemostasis. The expandable support may be attached to the catheter assembly at a first end, and to the core wire at a second end to optimize the width of the expandable support based on the function being performed by the expandable support at a given time. The catheter assembly may be able to move relative to the handle and the core wire, thereby moving the first end of the expandable support relative to the handle and the core wire.

Abstract: In one embodiment, a system for determining the proper positioning of a test strip includes a test strip having a first reading window and a strip holder. The system further includes a meter, the meter receiving and configured to receive the test strip, the meter having a first light source of a first color and a second light source of a second color and a first read window. The meter is configured to illuminate the first light source; detect a first reflectance with the meter through the first read window; and determine if the first reflectance is greater than a no-strip value.

Abstract: In one embodiment, a system for detecting an analyte in a bodily fluid sample includes an electrochemical biosensor, the electrochemical biosensor configured to receive the bodily fluid sample, test for the analyte, and produce an analyte level for the analyte. The system further includes a mediator, the mediator configured to provide for the testing of the analyte by facilitating electron exchange between the analyte and the biosensor. The system further includes an oxygen tension reducing agent, the oxygen tension reducing agent reducing interference of oxygen with the operation of the mediator.

Abstract: In one embodiment, a system for determining the proper positioning of a test strip includes a test strip having a first reading window and a strip holder. The system further includes a meter, the meter receiving and configured to receive the test strip, the meter having a first light source of a first color and a second light source of a second color and a first read window. The meter is configured to illuminate the first light source; detect a first reflectance with the meter through the first read window; and determine if the first reflectance is greater than a no-strip value.

Abstract: Systems and methods for point-of-care determination of blood potassium are provided. The approaches are based on the reaction of ADP and PEP in the presence of potassium ion and pyruvate kinase to produce pyruvate and ATP. In one method, the produced pyruvate is reacted with phosphate and mediator, in the presence of pyruvate oxidase, to yield acetylphosphate and reduced mediator, and the reduced mediator is used to determine the blood potassium using conventional electrochemical methods. In an alternative method, the produced pyruvate is reacted with phosphate and oxygen in the presence of pyruvate oxidase to yield acetylphosphate and hydrogen peroxide, and the hydrogen peroxide is measured optically in accordance with known methods.

Abstract: A pinch wall and dam system for controlling fluid flow movement between a sample receiving pad and a test strip includes a sample receiving pad and a test strip in contact with the sample receiving pad. The fluid seeps more quickly under the first portion of the pinch wall than under the second portion of the pinch wall, such that the test strip becomes saturated prior to excess fluid being absorbed in the portion of the sample receiving pad away from the test strip such that the test strip does not become flooded, the portion of the sample receiving pad positioned away from the test strip being sufficiently sized to absorb the excess fluid. The pinch wall and dam system further includes a dam, sitting on top of the sample receiving pad, the dam preventing the backflow of fluid from an area near the first portion of the pinch wall.

Abstract: A method and device for positioning an expandable support in a blood vessel is disclosed herein. The device may include a handle, a catheter assembly, a core wire, and an expandable support. The expandable support may be used to position the device relative to the arteriotomy, as well as to provide temporary hemostasis. The expandable support may be attached to the catheter assembly at a first end, and to the core wire at a second end to optimize the width of the expandable support based on the function being performed by the expandable support at a given time. The catheter assembly may be able to move relative to the handle and the core wire, thereby moving the first end of the expandable support relative to the handle and the core wire.

Abstract: A system for determining a level of Cotinine and Anabasine in a sample includes a test strip configured to receive a sample; and a meter configured to receive the test strip wherein the meter is configured to read the test strip and detect a level of Anabasine and Cotinine.

Abstract: A system for determining a level of Cotinine and Anabasine in a sample includes a test strip configured to receive a sample; and a meter configured to receive the test strip wherein the meter is configured to read the test strip and detect a level of Anabasine and Cotinine.

Abstract: A pinch wall and dam system for controlling fluid flow movement between a sample receiving pad and a test strip includes a sample receiving pad and a test strip in contact with the sample receiving pad. The fluid seeps more quickly under the first portion of the pinch wall than under the second portion of the pinch wall, such that the test strip becomes saturated prior to excess fluid being absorbed in the portion of the sample receiving pad away from the test strip such that the test strip does not become flooded, the portion of the sample receiving pad positioned away from the test strip being sufficiently sized to absorb the excess fluid. The pinch wall and dam system further includes a dam, sitting on top of the sample receiving pad, the dam preventing the backflow of fluid from an area near the first portion of the pinch wall.

Abstract: A system for determining a level of cotinine in a sample includes a test strip system configured to receive a sample, the test strip system including a first lateral flow test strip and a second lateral flow test strip, the first and second lateral flow test strips each having an overlapping but non-identical range for cotinine. The system further includes a meter configured to receive the test strip, wherein the meter is configured to read the test strip and detect a level of cotinine.

Abstract: A system for determining a level of Cotinine and Anabasine in a sample includes a test strip configured to receive a sample; and a meter configured to receive the test strip wherein the meter is configured to read the test strip and detect a level of Anabasine and Cotinine.

Abstract: A system and method for enabling viewing of non-HTML content. A content provider receives a request to view non-HTML content from a user and forwards JavaScript code to the user. The content provider sends the non-HTML content over a network to a document hosting service. The document hosting service receives the content, converts it into at least one image and assigns a URL to the at least one image. The JavaScript generates the URL at the user's computer. The document hosting service receives the request for the URL from the user and forwards the at least one image to the user.