Abstract: Computer implemented method for determining boundary thermal resistance data (Rbl) of a boundary layer (15), comprising the following steps: obtaining first temperature data (T1) from a first temperature sensor (13), which is arranged at a first pipe section (S1); obtaining second temperature data (T2) from a second temperature sensor (14), which is arranged at a second pipe section (S2); wherein the first temperature sensor (13) and the second temperature sensor (14) are non-invasive temperature sensors; providing process condition data (P); determining boundary thermal resistance data (Rbl) of a boundary layer (15) of the fluid (11) next to an inner surface (16) of the wall of the pipe (12) based on the process condition data (P) and/or based on the first temperature data (T1) and/or the second temperature data (T2).

Abstract: A computer implemented method for determining boundary thermal resistance data of a boundary layer includes obtaining first temperature data from a first temperature sensor, which is arranged at a first pipe section; obtaining second temperature data from a second temperature sensor, which is arranged at a second pipe section, wherein the first temperature sensor is a non-invasive temperature sensor and the second temperature sensor is an invasive temperature sensor; providing process condition data; determining boundary thermal resistance data of a boundary layer of the fluid next to an inner wall of the pipe based on the process condition data.

Abstract: A method for producing a multicoloured optoelectronic device is provided as well as a device produced with that method. An electrically conducting substrate including a first and second portion adjacent to the first portion is obtained. Then a first photoactive material having optical properties in a first frequency range is deposited on the first portion and a second photoactive material differing from the first photoactive material having optical properties in a second frequency range is deposited on the second portion, the first photoactive material contacting the second photoactive material, forming a photoactive layer of the multicoloured optoelectronic device.

Abstract: A luminescent hybrid nanomaterial comprising: at least one inorganic nanomaterial comprising an inorganic first compound; and at least one second compound comprising a first aggregation-induced emission moiety, wherein the at least one second compound is grafted on at least part of a surface of the inorganic first compound.

Abstract: A method for producing a multicoloured optoelectronic device is provided as well as a device produced with that method. An electrically conducting substrate including a first and second portion adjacent to the first portion is obtained. Then a first photoactive material having optical properties in a first frequency range is deposited on the first portion and a second photoactive material differing from the first photoactive material having optical properties in a second frequency range is deposited on the second portion, the first photoactive material contacting the second photoactive material, forming a photoactive layer of the multicoloured optoelectronic device.

Abstract: A luminescent hybrid nanomaterial comprising: at least one inorganic nanomaterial comprising an inorganic first compound; and at least one second compound comprising a first aggregation-induced emission moiety, wherein the at least one second compound is grafted on at least part of a surface of the inorganic first compound.

Abstract: A computer program product tangibly embodied in a computer-readable storage device includes instructions that, when executed, generate in a display device a graphical user interface comprising: a business view area with first objects representing business entities participating in a business network and second objects representing business connections between the business entities; and a connect view area with third objects representing applications participating in the business network and fourth objects representing logical interactions between the applications; wherein the graphical user interface dynamically updates the first, second, third and fourth objects with metadata that is at least in part automatically gathered in the business network.

Abstract: A computer program product tangibly embodied in a computer readable storage device includes a business network meta model comprising entity objects configured to generate interactive representations of a business network, including at least a business application representation and an information technology representation.

Abstract: Methods are disclosed that include exposing, in direct succession, portions of a surface of a sample to a charged particle beam, the portions of the surface of the sample forming a row in a first direction, the charged particle beam having an average spot size f at the surface of the sample, each portion being spaced from its neighboring portions by a distance of at least d in the first direction, and a ratio d/f being 2 or more.

Abstract: A computer program product tangibly embodied in a computer-readable storage device includes instructions that, when executed, generate in a display device a graphical user interface comprising: a business view area with first objects representing business entities participating in a business network and second objects representing business connections between the business entities; and a connect view area with third objects representing applications participating in the business network and fourth objects representing logical interactions between the applications; wherein the graphical user interface dynamically updates the first, second, third and fourth objects with metadata that is at least in part automatically gathered in the business network.

Abstract: A computer program product tangibly embodied in a computer readable storage device includes a business network meta model comprising entity objects configured to generate interactive representations of a business network, including at least a business application representation and an information technology representation.

Abstract: A computer-implemented method includes: receiving metadata about a business network, the metadata gathered by computer-based entities performing automated discovery of the business network; generating a business network model based on the metadata, the business network model comprising objects and associations between them, the objects representing aspects of the business network found by the automated discovery, including at least: participants, systems, relationships, applications, interfaces, middleware, process steps, and documents; and modifying the business network model based on at least one input.

Abstract: Methods are disclosed that include exposing, in direct succession, portions of a surface of a sample to a charged particle beam, the portions of the surface of the sample forming a row in a first direction, the charged particle beam having an average spot size fat the surface of the sample, each portion being spaced from its neighboring portions by a distance of at least din the first direction, and a ratio d/f being 2 or more.

Abstract: A system and method for integrating distributed business processes that govern message exchange between loosely coupled business applications. The system and method includes the use of an integration scenario. The integration scenario includes a delivery integration model that defines one or more design time business processes. The integration scenario further includes a configuration integration model that defines a runtime configuration of the one or more design time business process. Transformation modules are provided to transform the integration scenario from the delivery integration model to the configuration integration model, and vice versa.

Abstract: A system and method for integrating distributed business processes that govern message exchange between loosely coupled business applications. The system and method includes the use of an integration scenario. The integration scenario includes a delivery integration model that defines one or more design time business processes. The integration scenario further includes a configuration integration model that defines a runtime configuration of the one or more design time business process. Transformation modules are provided to transform the integration scenario from the delivery integration model to the configuration integration model, and vice versa.