mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a lighting device, comprising: - providing a strip-shaped lighting module including a printed circuit carrying a plurality of electrically-powered light radiation sources having respective light emitting ends and a plurality of electronic components protruding from a first face of said printed circuit, wherein said electronic components have respective upper portions protruding from said printed circuit beyond said light emitting ends of said electrically-powered light radiation sources, and - placing said lighting module in a channel-shaped profile, with said first face of the printed circuit facing upwards, characterized by: - dispensing a first opaque curable polymeric material into said channel-shaped profile, in order to cover said printed circuit and leave said light emitting ends of said electrically-powered light radiation sources and said upper portions of said electronic components uncovered, and - coating said upper portions of said electronic components with an opaque coating (24, 30, 32), wherein coating said upper portions of said electronic components with an opaque coating comprises: - dispensing a second opaque curable polymeric material onto said upper portions of said electronic components, or - applying said opaque coating to said upper portions by pad printing, or - applying opaque caps onto said upper portions. - providing a strip-shaped lighting module including a printed circuit carrying a plurality of electrically-powered light radiation sources having respective light emitting ends and a plurality of electronic components protruding from a first face of said printed circuit, wherein said electronic components have respective upper portions protruding from said printed circuit beyond said light emitting ends of said electrically-powered light radiation sources, and - placing said lighting module in a channel-shaped profile, with said first face of the printed circuit facing upwards, - dispensing a first opaque curable polymeric material into said channel-shaped profile, in order to cover said printed circuit and leave said light emitting ends of said electrically-powered light radiation sources and said upper portions of said electronic components uncovered, and - coating said upper portions of said electronic components with an opaque coating (24, 30, 32), wherein coating said upper portions of said electronic components with an opaque coating comprises: - dispensing a second opaque curable polymeric material onto said upper portions of said electronic components, or - applying said opaque coating to said upper portions by pad printing, or - applying opaque caps onto said upper portions.
A steering control device for a vehicle comprising: a steering unit that is mechanically separated from a turning unit for turning a turnable wheel (5FL, 5FR) and receives steering input from a driver; a steering reaction force control means that sets a steering reaction force characteristic to coordinates, of which the coordinate axes are the self-aligning torque and the steering reaction force, so that the self-aligning torque increases as the steering reaction force increases, and that applies a steering reaction force to the steering unit based on the steering reaction force characteristic; a curvature detection means for detecting a curvature of a white line; an offset means for calculating an offset amount that increases as the detected curvature increases and that offsets the steering reaction force characteristic at the coordinates only by the offset amount in the same coding direction as the self-aligning torque, characterized in that the device further comprises a curve direction steering torque detection means for detecting a steering torque in a curve direction; and an offset suppression means for suppressing a change in the offset amount more as a detected steering torque in the curve direction increases. a steering unit that is mechanically separated from a turning unit for turning a turnable wheel (5FL, 5FR) and receives steering input from a driver; a steering reaction force control means that sets a steering reaction force characteristic to coordinates, of which the coordinate axes are the self-aligning torque and the steering reaction force, so that the self-aligning torque increases as the steering reaction force increases, and that applies a steering reaction force to the steering unit based on the steering reaction force characteristic; a curvature detection means for detecting a curvature of a white line; an offset means for calculating an offset amount that increases as the detected curvature increases and that offsets the steering reaction force characteristic at the coordinates only by the offset amount in the same coding direction as the self-aligning torque, characterized in that the device further comprises a curve direction steering torque detection means for detecting a steering torque in a curve direction; and an offset suppression means for suppressing a change in the offset amount more as a detected steering torque in the curve direction increases.
Optoelectronic component having an electrode and a counterelectrode and at least one organic light-sensitive layer between the electrode and the counterelectrode, characterized in that the organic light-sensitive layer comprises a compound of the general formula I EWG-V n -D-V o -EWG in which EWG has electron-withdrawing properties with respect to D, V is -CR1=CR2- or -C≡C- with R1 and R2 selected from H, C1-C10-alkyl, C1-C10-Oalkyl, C1-C10-Salkyl, in which R1 and R2 may form a ring, and n and o are each independently 0 or 1, characterized in that D is an extended donor block formed from at least 5 fused aromatic heterocyclic 5-membered rings and/or heterocyclic or homocyclic 6-membered rings, with the proviso that the following structures are excluded: wherein X 1 to X 5 are the same or different and are independently CR 1' R 2', SiR 3 'R 4 ', NR 5 ', oxygen or selenium (Se), wherein R 1' to R 5' are the same or different and are independently hydrogen, a substituted or unsubstituted C 1 to C 20 alkyl group, a substituted or unsubstituted C 6 to C 20 aryl group, a substituted or unsubstituted C 3 to C 20 heteroaryl group and combinations thereof.
Heat transfer pipe having a longitudinal pipe axis, wherein - continually extending, axially parallel or helically circumferential ribs are formed from the pipe wall at the inner pipe side, - continuously extending primary grooves are formed in each case between adjacent ribs, - the ribs have at least one structured region at the inner pipe side, - the structured region has a plurality of projections which protrude from the surface and which have a projection height (h), wherein adjacent projections are separated by means of notches, wherein the projections are arranged in groups which are repeated periodically along the rib path, - the notches are formed by cutting the inner ribs with a cutting depth (t 1, t 2, t 3) transversely relative to the rib path in order to form rib layers and by raising the rib layers with a main orientation along the rib path between primary grooves, characterised in that - at least two notches are formed between the projections within the group with a changing notch depth (t 1, t 2, t 3) in a rib, and - in that the notches which are spaced apart by at least one projection vary in terms of the notch depth (t 1, t 2, t 3) by at least 10%. - continually extending, axially parallel or helically circumferential ribs are formed from the pipe wall at the inner pipe side, - continuously extending primary grooves are formed in each case between adjacent ribs, - the ribs have at least one structured region at the inner pipe side, - the structured region has a plurality of projections which protrude from the surface and which have a projection height (h), - the notches are formed by cutting the inner ribs with a cutting depth (t 1, t 2, t 3) transversely relative to the rib path in order to form rib layers and by raising the rib layers with a main orientation along the rib path between primary grooves, characterised in that - at least two notches are formed between the projections within the group with a changing notch depth (t 1, t 2, t 3) in a rib, and - in that the notches which are spaced apart by at least one projection vary in terms of the notch depth (t 1, t 2, t 3) by at least 10%.
Method of spectrally broadening light pulses, comprising the steps of - providing the light pulses with a laser source, said light pulses having a pulse duration below 1 ps, - in-coupling the light pulses into a hollow optical waveguide device including a Raman active pulse guiding medium, said light pulses being subjected to a Raman nonlinearity in the optical waveguide device, and - spectrally broadening the light pulses propagating along the pulse guiding medium by subjecting them to the Raman nonlinearity via excitation of a Raman polarization having a first Raman period, wherein the optical waveguide device including the pulse guiding medium subjects the light pulses to anomalous group velocity dispersion which combines with the spectral broadening of the light pulses to result in a Raman-enhanced self-compression of the light pulses, wherein the optical waveguide device has a length selected such that the light pulses further propagate along the optical waveguide device such that the Raman-enhanced self-compression results in a further excitation of a Raman polarization having a second Raman period which is faster than the first Raman period, resulting in a further spectral broadening of the light pulses up to a supercontinuum spectrum including wavelengths less than 300 nm, and wherein the pulse guiding medium comprises a Raman active gas and a noble gas. - providing the light pulses with a laser source, said light pulses having a pulse duration below 1 ps, - in-coupling the light pulses into a hollow optical waveguide device including a Raman active pulse guiding medium, said light pulses being subjected to a Raman nonlinearity in the optical waveguide device, and - spectrally broadening the light pulses propagating along the pulse guiding medium by subjecting them to the Raman nonlinearity via excitation of a Raman polarization having a first Raman period,
An imaging system, comprising: a radiation sensitive detector array, comprising: at least two scintillator array layers, each comprising a two-dimensional array of scintillator dixels; and at least two corresponding photosensor array layers, characterised in that at least one of the at least two photosensor array layers is located between the at least two scintillator array layers in a direction of incoming radiation, wherein in the at least one of the at least two photosensor array layers, the current produced by direct conversion is less than a predetermined threshold of ten percent of the current produced therein by light from the scintillator, wherein the at least one of the at least two photosensor array layers comprises at least one of silicon or gallium arsenide, wherein the at least one of the at least two photosensor array layers includes a thinned semiconductor-on-insulator photodiode array mounted on film, and wherein the at least one of the at least two photosensor array layers has a thickness that is less than thirty microns. at least two scintillator array layers, each comprising a two-dimensional array of scintillator dixels; and at least two corresponding photosensor array layers, characterised in that at least one of the at least two photosensor array layers is located between the at least two scintillator array layers in a direction of incoming radiation, wherein in the at least one of the at least two photosensor array layers, the current produced by direct conversion is less than a predetermined threshold of ten percent of the current produced therein by light from the scintillator, wherein the at least one of the at least two photosensor array layers comprises at least one of silicon or gallium arsenide, wherein the at least one of the at least two photosensor array layers includes a thinned semiconductor-on-insulator photodiode array mounted on film, and wherein the at least one of the at least two photosensor array layers has a thickness that is less than thirty microns.
A coal fired Oxy boiler power plant comprising a Rankine steam cycle having; a high pressure steam turbine adapted to expand steam having an exit; an intermediate pressure steam turbine adapted to expand steam from the high pressure steam turbine and having a steam extraction port; a low pressure steam turbine adapted to expand steam from the intermediate pressure steam turbine; and a condensate system comprising: a condenser adapted to condense steam exhausted from the low pressure steam turbine: a plurality of serial low pressure heaters (24,25,11,12,20), arranged and numbered in sequential order based on a condensate flow direction, adapted to receive and serially heat condensate from the condenser; a feed water tank configured and arranged to receive condensate from the series of low pressure heaters (24,25,11,12,20); and a series of high pressure heaters adapted to receive condensate from the feed water tank, the oxy boiler power plant further comprising an Air Separation Unit having a dryer heater adapted to heat a regeneration fluid for use in a dryer of the Air Separation Unit, wherein an extraction line connects the steam extraction port to the dryer heater, characterised by a drain line fluidly connecting the dryer heater to the condensate system. a high pressure steam turbine adapted to expand steam having an exit; an intermediate pressure steam turbine adapted to expand steam from the high pressure steam turbine and having a steam extraction port; a low pressure steam turbine adapted to expand steam from the intermediate pressure steam turbine; and a condensate system comprising: a condenser adapted to condense steam exhausted from the low pressure steam turbine: a plurality of serial low pressure heaters (24,25,11,12,20), arranged and numbered in sequential order based on a condensate flow direction, adapted to receive and serially heat condensate from the condenser; a feed water tank configured and arranged to receive condensate from the series of low pressure heaters (24,25,11,12,20); and a series of high pressure heaters adapted to receive condensate from the feed water tank, the oxy boiler power plant further comprising an Air Separation Unit having a dryer heater adapted to heat a regeneration fluid for use in a dryer of the Air Separation Unit, wherein an extraction line connects the steam extraction port to the dryer heater, characterised by a drain line fluidly connecting the dryer heater to the condensate system. a plurality of serial low pressure heaters (24,25,11,12,20), arranged and numbered in sequential order based on a condensate flow direction, adapted to receive and serially heat condensate from the condenser; a feed water tank configured and arranged to receive condensate from the series of low pressure heaters (24,25,11,12,20); and a series of high pressure heaters adapted to receive condensate from the feed water tank,
A method performed by a terminal for performing discovery of another terminal in a communication system, the method comprising: generating a discovery request message including discovery target information; transmitting the discovery request message to a server that supports a proximity service for the terminal and the another terminal; and receiving information obtained by a discovery operation from an agent entity that performs the discovery operation with the another terminal on behalf of the terminal using identification information of the terminal, wherein the agent entity is determined by the server based on the discovery target information. generating a discovery request message including discovery target information; transmitting the discovery request message to a server that supports a proximity service for the terminal and the another terminal; and receiving information obtained by a discovery operation from an agent entity that performs the discovery operation with the another terminal on behalf of the terminal using identification information of the terminal, wherein the agent entity is determined by the server based on the discovery target information.
A valve stem displacement measuring system comprising a valve stem, and further comprising: • a housing of a valve assembly adapted to slidably receive the valve stem, wherein said valve stem slides along the wall of said housing; • a magnet mounted on said valve stem and adapted to move between two pre-determined positions defined along an axis of motion of said valve stem within said housing in response to displacement of said valve stem for facilitating change in magnetic flux associated with said magnet; and at least a pair of sensors (20, 20') mounted in said housing, said system characterized in that, • each of said sensors (20, 20') is disposed on either side of said axis and is configured to determine displacement of said magnet based on change in said magnetic flux caused by motion of said magnet, each of said sensors (20, 20') comprising a flux concentrator (02, 02') configured to receive and direct said magnetic flux of said magnet to said sensors (20, 20'). • a housing of a valve assembly adapted to slidably receive the valve stem, wherein said valve stem slides along the wall of said housing; • a magnet mounted on said valve stem and adapted to move between two pre-determined positions defined along an axis of motion of said valve stem within said housing in response to displacement of said valve stem for facilitating change in magnetic flux associated with said magnet; and at least a pair of sensors (20, 20') mounted in said housing, said system characterized in that, • each of said sensors (20, 20') is disposed on either side of said axis and is configured to determine displacement of said magnet based on change in said magnetic flux caused by motion of said magnet, each of said sensors (20, 20') comprising a flux concentrator (02, 02') configured to receive and direct said magnetic flux of said magnet to said sensors (20, 20').
A medical device in the form of a monitor with a housing or a computer, which comprises computer hardware and a touch-sensitive display unit integrated in a common housing, wherein the housing comprises at least a first housing part and a second housing part releasably connectable to the first housing part, wherein the first housing part includes first connecting means (3.1) and the second housing part includes second connecting means (4.1) interacting with said first connecting means (3.1), wherein the first and second connecting means (3.1, 4.1) are configured to cause a fixing of the second housing part on the first housing part by means of a form-fitting connection, wherein the form-fitting connection is caused by interlocking the housing parts (3, 4) in a toothed or hooked manner, wherein the second housing part can be fixed on the first housing part by placement in a first spatial direction and by shifting in a second spatial direction extending transversely to the first spatial direction, wherein securing means configured to secure the fixing of the second housing part on the first housing part are provided, wherein the securing means include a magnetic or magnetizable element (5.1) configured to interact with a magnetic unlocking device in such a way that the securing means can be moved from a locking position to an unlocking position by the magnetic field of the magnetic unlocking device, wherein a seal is provided at the interface between the first and second housing parts (3, 4), wherein said seal seals the interface in a liquid-tight manner when the second housing part is fixed to the first housing part and the seal is formed circumferentially in one piece formed and is partially inserted into a beading of the first housing part or the second housing part, wherein due to the form-fitting connection of the housing parts (3, 4) against each other a contact pressure of the housing parts (3, 4) against this seal is obtained so that the interface between the housing parts (3, 4) is fluid-tight.
A method performed by a target base station, BS, in a wireless communication system, the method comprising: receiving, from a source BS, a handover request message for a terminal, the handover request message comprising a radio access protocol version of the source BS; comparing the radio access protocol version of the source BS and a radio access protocol version of the target BS, based on the handover request message; determining a required radio access protocol version to reconfigure the terminal, based on a result of the comparing; transmitting, to the source BS, an indication of the required radio access protocol version for the terminal, in case that the radio access protocol version of the source BS is higher than the radio access protocol version of the target BS; receiving, from the terminal, a connection re-establishment request message; and transmitting, to the terminal, a connection re-establishment message in response to the connection re-establishment request message, the connection re-establishment message comprising the indication of the required radio access protocol version for the terminal, wherein the indication configures the terminal to switch a radio access protocol version of the terminal to the required radio access protocol version. receiving, from a source BS, a handover request message for a terminal, the handover request message comprising a radio access protocol version of the source BS; comparing the radio access protocol version of the source BS and a radio access protocol version of the target BS, based on the handover request message; determining a required radio access protocol version to reconfigure the terminal, based on a result of the comparing; transmitting, to the source BS, an indication of the required radio access protocol version for the terminal, in case that the radio access protocol version of the source BS is higher than the radio access protocol version of the target BS; receiving, from the terminal, a connection re-establishment request message; and transmitting, to the terminal, a connection re-establishment message in response to the connection re-establishment request message, the connection re-establishment message comprising the indication of the required radio access protocol version for the terminal, wherein the indication configures the terminal to switch a radio access protocol version of the terminal to the required radio access protocol version.