Abstract: An electrode of an electrolysis cell for gas-producing electrochemical processes, which includes a plurality of horizontal lamella elements which in the manner of a flat C-profile consist of a flat central part and one or more flank parts, where one or more transition regions of any shape are arranged between the flat central part and the one or more flank parts, where the lamella elements have a plurality of through-openings, where the lamella elements have a flat surface without structural raised regions and depressions and the flat central part has a plurality of through-openings which are arranged in rows and arranged diagonally to one another.

Abstract: A system and method to receive, via a graphical user interface layout, a request to create a data element; and present within the graphical user interface layout, in response to receiving the request, an expanded user interface element including user interface input fields to specify at least one attribute of the data element.

Abstract: A method for coating a substrate on one or more sides having catalytically active material producible by material deposition under vacuum in a vacuum chamber, using the following steps: loading a substrate in the chamber evacuating the chamber, cleaning the substrate by introducing a gaseous reducing agent, removing the gaseous reducing agent, applying an intermediate layer by means of vacuum arc evaporation, wherein a substrate comprising the same or similar material is introduced into the vacuum chamber, controlling the chamber temperature, coating by vacuum arc evaporation, a metal taken from the group ruthenium, iridium, titanium and mixtures thereof while oxygen is supplied, in a last step the coated substrate is removed from the chamber, wherein at least 99% of the substrate coating is free of constituents originally contained in the substrate itself, and at least 99% of the coating applied on the intermediate layer is kept free of non-oxidized metals.

Abstract: Display data to cause the display of a calendar feature having one or more date elements may be output. A selection of a date element or date elements and user input for creating a trip object may be received. The trip object may be created in response and the start and end fields for the trip object may be populated based on the selected date elements.

Abstract: A trip object may be associated with one or more trip phase objects having status indicators and associated actions. A determination may be made for a trip status of the trip object and display data for a representation of the trip object may be outputted. The representation may include a trip status indicator portion that is mapped to a determined status for the trip status and a selectable feature that is mapped to an action that is associated with the determined status.

Abstract: System and methods for tracking data based upon a status. A request for data associated with a status may be received. A set of data structures associated with the status may be determined. The each data structure of the set of determined data structures may be queried for a data element. An output may be generated based upon the returned data elements.

Abstract: Systems and methods for intelligent handling of one or more unstructured data items may include receiving a request for a buffer. A context for the request may be determined. A sorting input may be received. Based upon the sorting input, a determination of one or more unstructured data items may be made. The determination may be made based upon comparing the sorting input with one or more data elements of each unstructured data item. One or more of the unstructured data items may be associated with a grouping.

Abstract: A first data item may include data elements and be associated with a first source. A second data item may also include data elements and be associated with a second source. A determination may be made that the first data item and the second data item are related based, at least in part, on determining that a data element of the first data item matches a data element of second data item. A determination may also be made that the first source and the second source are different. The first data item and the second data item having a matching data element and different sources may then be associated with an aggregate data item.

Abstract: In some embodiments, a computer-implemented method includes receiving, in a processor, a device description code identifying components of a device and connections between the components, wherein some of the components and connections form boundary cells used for testing the device. The method can include processing, in the processor, the device description code to determine that the components and the connections meet a standard governing components and connections necessary for the boundary cells. The method can also include traversing the connections between the components to determine that the connections meet the standard, and reporting, via one or more output devices, that the device complies with the standard.

Abstract: A system and method to receive a request to specify attributes associated with a data element, and present, in response to the request, a graphical user interface layout including at least one first user interface input field for specifying a value for the attributes associated with the data element and a second user interface input field for specifying a time period to associate with the at least one first user input field.

Abstract: A system and method to receive, via a graphical user interface layout, a request to create a data element; and present within the graphical user interface layout, in response to receiving the request, an expanded user interface element including user interface input fields to specify at least one attribute of the data element.

Abstract: A method for coating a substrate on one or more sides having catalytically active material producible by material deposition under vacuum in a vacuum chamber, using the following steps: loading a substrate in the chamber evacuating the chamber, cleaning the substrate by introducing a gaseous reducing agent, removing the gaseous reducing agent, applying an intermediate layer by means of vacuum arc evaporation, wherein a substrate comprising the same or similar material is introduced into the vacuum chamber, controlling the chamber temperature, coating by vacuum arc evaporation, a metal taken from the group ruthenium, iridium, titanium and mixtures thereof while oxygen is supplied, in a last step the coated substrate is removed from the chamber, wherein at least 99% of the substrate coating is free of constituents originally contained in the substrate itself, and at least 99% of the coating applied on the intermediate layer is kept free of non-oxidized metals.

Abstract: In some embodiments, a computer-implemented method includes receiving, in a processor, a device description code identifying components of a device and connections between the components, wherein some of the components and connections form boundary cells used for testing the device. The method can include processing, in the processor, the device description code to determine that the components and the connections meet a standard governing components and connections necessary for the boundary cells. The method can also include traversing the connections between the components to determine that the connections meet the standard, and reporting, via one or more output devices, that the device complies with the standard.

Abstract: A ceramic microreactor for carrying out reactions having a large heat of reaction which has at least three interior spaces, with at least one interior space having internal buffers whose shape, number and positioning ensure homogeneous flow, is described. The microreactor is built up as a monolith from at least seven plate-shaped layers of inert ceramic material, preferably aluminium oxide, which form an upper heating/cooling space, a central reaction space and a lower heating/cooling space. One interior space has a coating of a catalyst comprising noble metal. The shape, number and positioning of the internal buffers is determined by means of flow simulation calculations; the internal buffers preferably have a lozenge shape. The microreactor displays very good selectivity in reactions having a large heat of reaction, in particular in heterogeneous gas-phase reactions, and is used in particular for hydrogen production and/or hydrogen purification in fuel cell technology.