Abstract: A radiation system employs a couch top rotatable about a yaw axis to provide non-coplanar irradiation of a patient in an O-ring type of radiation machine. The radiation machine includes a source operable to produce radiation and a housing enclosing the source. The housing defines a bore and the source is rotatable at least partially around the bore. The couch top is adapted to be rotatable about a yaw axis, thereby allowing non-coplanar irradiation of at least a portion of the patient by the source. A radiation method is also provided.

Abstract: A system and method for assessing the concentration of a fluid component within a container, the method comprising: receiving data associated with an image of the canister; from the image, detecting a color grid comprising color elements coupled to the canister,; selecting a region of the image corresponding to a portion of the canister; determining a match between a detected color of the region and a shade in the set of colors associated with the color grid captured in the image; based upon a position of a color element corresponding to the shade in the color grid, retrieving a concentration of the blood component associated with the shade of color.

Abstract: A system and method for assessing the concentration of a fluid component within a container, the method comprising: receiving data associated with an image of the canister; from the image, detecting a color grid comprising color elements coupled to the canister,; selecting a region of the image corresponding to a portion of the canister; determining a match between a detected color of the region and a shade in the set of colors associated with the color grid captured in the image; based upon a position of a color element corresponding to the shade in the color grid, retrieving a concentration of the blood component associated with the shade of color.

Abstract: A guardrail support comprising a base having a first side with attachment holes suitable for attachment to a surface beneath the base using one or more fasteners at a penetrating angle, and a second side one or more attachment holes suitable for attachment to the surface beneath the base using one or more fasteners at a penetrating angle, a post extending vertically from the base, a support member extending at an angle from the first side of the base to the post, where an upper portion of the post is positioned at a distance of between 48 inches and 60 inches from the base, and wherein when the base of the guardrail support is attached to the surface beneath the base, the guardrail support will withstand a 200 pound outward or downward force applied to the upper portion of the post.

Abstract: A container for a temperature sensitive product, such as a pharmaceutical compound, includes an inner vessel and an outer shell. When the inner vessel is contained in the outer shell, a chamber adapted to receive a phase change material is defined between an inner vessel wall and an outer shell wall. A container may also include multiple chambers defined by multiple walls, with different phase change materials disposed in different chambers. A cap, such as a child-proof cap, may be used to secure the contents of the container.

Abstract: A method for a binder-free manufacturing a nanostructured porous film, e.g. for use in solar cells, includes the steps of preparing a suspension of semi-conducting nanometer-sized particles in a volatile suspending agent (21), depositing the particle suspension on a conducting substrate, removing the suspending agent by evaporation (31), thereby leaving a particle layer on said substrate and compressing (P) the deposited particle layer for mechanical and electrical interconnection.

Abstract: An electrolytic cell assembly, e.g. for use in solar panels, is formed by placing coated metal wires (7,9) between the conducting layers (3,6) of two conducting glasses (1,4), respectively. A pressure force (F) is applied to press the metal wires between the conducting layers and to break the coating of the wires, thereby bringing the metal wires in electrical contact with the conducting layers. The coating protects the wires from harmful contact with an electrolyte inside the cell.

Abstract: An electrolytic cell assembly, e.g. for use in solar panels, is formed by placing coated metal wires (7, 9) between the conducting layers (3, 6) of two conducting glasses (1, 4), respectively. A pressure force (F) is applied to press the metal wires between the conducting layers and to break the coating of the wires, thereby bringing the metal wires in electrical contact with the conducting layers. The coating protects the wires from harmful contact with an electrolyte inside the cell.

Abstract: A method for a binder-free manufacturing a nanostructured porous film, e.g.

Abstract: A measuring system with a measuring body (2) mounted on a rotatable shaft (1) and being provided with electrodes (16) for measuring electrical currents obtained through chemical reactions within an analyte solution. In the rotatable shaft is housed an electronic unit (14) for converting the electric current to a measuring signal which is, via a transferring means (6), transferred in an analogue or digital representation to a measuring signal registrating means placed outside of the rotatable shaft.

Abstract: A solar cell driven display is provided with battery backup, where the included components, solar cell and/or battery forms an integrated system based on porous titanium dioxide or other metal oxide films. The solar cell charges the battery and/or operates as a power source for the display. The solar cell and battery as display each include a pair of film electrodes on, for example, glass. They are interconnected by an electrolyte, which brings about charges between the paired electrodes. The solar cell is of a photoelectrochemical type and the battery of a rocking-chair type. By intercalation, for example, by lithium ions in the oxide film it is colored, for example, titanium dioxide becomes blue. Then it may simultaneously operate as a display portion but also as a portion in an electrochemical element of a battery.