mhurhangee/ep-ind-claims huggingface dataset:
Process for producing a sensor matrix, the sensor matrix comprising semiconductor components, a laminar carrier layer, a first and at least one second electrode arrangement, and a component arrangement, where the component arrangement is disposed on the first electrode arrangement and is provided in the form of a plurality of semiconductor components, and the semiconductor components are made from an organic semiconductor material and the first electrode arrangement is disposed on a surface of the carrier layer, wherein the second electrode arrangement is applied to a surface of a top layer, wherein the electrodes of the first and of the second electrode arrangement are provided in the form of strip electrodes (5, 11) forming a grid-like arrangement of column and row electrodes, and the top layer is disposed over the carrier layer, and the first and second electrode arrangements face one another and the second electrode arrangement is in electrically conductive contact via contact points with the component arrangement at least in certain sections, which contact points are applied to the second electrode arrangement, wherein strip electrodes of the second electrode arrangement comprise a layered arrangement with electrodes arranged on top of one another and electrically isolated from one another, the process comprising the following steps: a) printing the first electrode arrangement onto a surface of the carrier layer; b) printing the component arrangement comprising the plurality of semiconductor components onto the first electrode arrangement; c) printing contact sections onto the semiconductor components of the component arrangement, d) printing the second electrode arrangement onto a surface of the top layer; e) printing the contact points onto the second electrode arrangement; f) disposing the top layer is over the carrier layer, so that the contact points of the second electrode arrangement come into electrical contact with the contact section of the semiconductor component in the component arrangement; g) connecting the top layer to the carrier layer. a) printing the first electrode arrangement onto a surface of the carrier layer; b) printing the component arrangement comprising the plurality of semiconductor components onto the first electrode arrangement; c) printing contact sections onto the semiconductor components of the component arrangement, d) printing the second electrode arrangement onto a surface of the top layer; e) printing the contact points onto the second electrode arrangement; f) disposing the top layer is over the carrier layer, so that the contact points of the second electrode arrangement come into electrical contact with the contact section of the semiconductor component in the component arrangement; g) connecting the top layer to the carrier layer.
A recessed lighting assembly, comprising a light engine assembly, the light engine assembly comprising: at least one trim element, said trim element defining a trim element internal space, the trim element including a flange portion configured to extend beyond an opening of a lighting device housing when the light engine assembly is disposed in the lighting device housing; a light engine comprising at least one solid state light emitter and a light engine housing, said light engine within said trim element internal space so that the at least one solid state light emitter emits light into said trim element internal space when energized; a thermal interface element between the light engine housing and the at least one trim element; and characterized in that the light engine assembly further comprises: a room-side element which comprises at least one heat dissipation fin, said room-side element in contact with at least a portion of the light engine assembly. at least one trim element, said trim element defining a trim element internal space, the trim element including a flange portion configured to extend beyond an opening of a lighting device housing when the light engine assembly is disposed in the lighting device housing; a light engine comprising at least one solid state light emitter and a light engine housing, said light engine within said trim element internal space so that the at least one solid state light emitter emits light into said trim element internal space when energized; a thermal interface element between the light engine housing and the at least one trim element; and characterized in that the light engine assembly further comprises: a room-side element which comprises at least one heat dissipation fin, said room-side element in contact with at least a portion of the light engine assembly.
A method of wireless communication at a user equipment, UE, the method comprising: identifying a conflict between a system resource and a wake-up signal, WUS, resource associated with the UE while the UE is operating based on discontinuous reception, DRX, wherein the system resource includes one of a synchronization signal block, SSB, or a physical broadcast channel, PBCH, block; and modifying DRX operation in response to identifying the conflict between the system resource and the WUS resource, wherein modifying the DRX operation includes: refraining from monitoring for a WUS in the WUS resource that conflicts with the system resource; and waking up during a DRX-On duration following the WUS resource without monitoring for the WUS. refraining from monitoring for a WUS in the WUS resource that conflicts with the system resource; and waking up during a DRX-On duration following the WUS resource without monitoring for the WUS.
A method for producing particles of an active ingredient comprising: (a) forming a first solution by dissolving the active ingredient in a first solvent; and (b) forming the particles of the active ingredient by mixing a second solvent with the first solution to produce an emulsified solution; wherein, the second solvent is miscible with the first solvent, but is immiscible with the first solution; wherein either the active ingredient is paliperidone palmitate, the first solvent is toluene and the second solvent is hexane or heptane; or the active ingredient is ascorbic acid, the first solvent is methanol and the second solvent is water; or the first solvent is tetrahydrofuran and the second solvent is heptane. (a) forming a first solution by dissolving the active ingredient in a first solvent; and (b) forming the particles of the active ingredient by mixing a second solvent with the first solution to produce an emulsified solution; wherein, the second solvent is miscible with the first solvent, but is immiscible with the first solution; wherein either the active ingredient is paliperidone palmitate, the first solvent is toluene and the second solvent is hexane or heptane; or the active ingredient is ascorbic acid, the first solvent is methanol and the second solvent is water; or the first solvent is tetrahydrofuran and the second solvent is heptane.
A light emitting device comprising: a substrate having opposed first and second main faces; a light emitting element mounted on the first main face of the substrate; a driver integrated circuit, IC, formed in an area corresponding to a lower side of the light emitting element within the substrate, and adjusting the amount of current applied to the light emitting element; and characterized in that a conductive via extending from the first main face to the second main face and made of a material different from that of the substrate; wherein the driver IC comprises a pair of external input terminals disposed thereon in the direction of the first main face, and the external input terminals and the conductive via are connected through a wiring structure formed on the first main face. a substrate having opposed first and second main faces; a light emitting element mounted on the first main face of the substrate; a driver integrated circuit, IC, formed in an area corresponding to a lower side of the light emitting element within the substrate, and adjusting the amount of current applied to the light emitting element; and characterized in that a conductive via extending from the first main face to the second main face and made of a material different from that of the substrate;
A method comprising: a mobile device receiving a first signal from a fire alarm control panel device, the first signal containing identifying information of the fire alarm control panel device; the mobile device transmitting a second signal containing the identifying information and a geographic location of the mobile device to a geographically remote server device; the mobile device receiving a third signal containing a second piece of information from the geographically remote server device; and the mobile device displaying the second piece of information on a user interface of the mobile device, wherein the second piece of information includes instructional information for installing, commissioning, testing, or maintaining the fire alarm control panel device, and wherein the second piece of information is identified by the geographically remote server device based on both the identifying information and the geographic location of the mobile device. a mobile device receiving a first signal from a fire alarm control panel device, the first signal containing identifying information of the fire alarm control panel device; the mobile device transmitting a second signal containing the identifying information and a geographic location of the mobile device to a geographically remote server device; the mobile device receiving a third signal containing a second piece of information from the geographically remote server device; and the mobile device displaying the second piece of information on a user interface of the mobile device, wherein the second piece of information includes instructional information for installing, commissioning, testing, or maintaining the fire alarm control panel device, and wherein the second piece of information is identified by the geographically remote server device based on both the identifying information and the geographic location of the mobile device.
A device for delivering one or more therapeutic materials to a treatment site, comprising: a body (1410; 1510; 1610); a member (1330; 1430) that is movable with respect to the body (1410; 1510; 1610) and that is configured to curl within itself so that a portion of the member (1330; 1430) overlaps with another portion of the member (1330; 1430) to define a barrier region (1331; 1431) at the treatment site; and one or more delivery lumens (1322, 1324; 1422, 1424) configured to deliver one or more therapeutic materials to the barrier region (1331; 1431); characterized in that the member (1330; 1430) includes at least two sets of a plurality of delivery ports (1336; 1437, 1439) disposed at different positions on a surface of the member (1330; 1430) so that the at least two sets of delivery ports (1336; 1437, 1439) can be disposed in the internal surface of the defined barrier region (1331; 1431); and in that each set of delivery ports (1336; 1437, 1439) communicates with a delivery lumen of the one or more delivery lumens (1322, 1324; 1422, 1424) and is configured to deliver a therapeutic material to the defined barrier region (1331; 1431). a body (1410; 1510; 1610); a member (1330; 1430) that is movable with respect to the body (1410; 1510; 1610) and that is configured to curl within itself so that a portion of the member (1330; 1430) overlaps with another portion of the member (1330; 1430) to define a barrier region (1331; 1431) at the treatment site; and one or more delivery lumens (1322, 1324; 1422, 1424) configured to deliver one or more therapeutic materials to the barrier region (1331; 1431); characterized in that the member (1330; 1430) includes at least two sets of a plurality of delivery ports (1336; 1437, 1439) disposed at different positions on a surface of the member (1330; 1430) so that the at least two sets of delivery ports (1336; 1437, 1439) can be disposed in the internal surface of the defined barrier region (1331; 1431); and in that each set of delivery ports (1336; 1437, 1439) communicates with a delivery lumen of the one or more delivery lumens (1322, 1324; 1422, 1424) and is configured to deliver a therapeutic material to the defined barrier region (1331; 1431).
One or more computer storage media having computer-executable instructions embodied thereon which, when executed by an existing user device, cause said existing user device to perform the steps of a method for configuring a peer group, wherein the existing user device resides on the peer group, the peer group resides on a subnetwork that is a home location of the existing user device, and a new user device is located on the subnetwork and has designated the subnetwork as its home location, the method comprising: sending a request to join the peer group to the new user device; challenging the new user device for a passkey; receiving the passkey from the new user device; determining whether the received passkey is correct; and if the passkey received from the new user device is correct, allowing the new user device to join the peer group. sending a request to join the peer group to the new user device; challenging the new user device for a passkey; receiving the passkey from the new user device; determining whether the received passkey is correct; and if the passkey received from the new user device is correct, allowing the new user device to join the peer group.
Method for generating power on board a vehicle, wherein the method comprises: - generating a gas by chemically decomposing an ammonia precursor in a biochemical decomposition unit mounted on board the vehicle and storing at least one protein component adapted to decompose said ammonia precursor; - separating and collecting water from the gas generated in the biochemical decomposition unit by means of a liquid-vapour separator unit; - converting said gas into power in at least one power generator mounted on board the vehicle. - generating a gas by chemically decomposing an ammonia precursor in a biochemical decomposition unit mounted on board the vehicle and storing at least one protein component adapted to decompose said ammonia precursor; - separating and collecting water from the gas generated in the biochemical decomposition unit by means of a liquid-vapour separator unit; - converting said gas into power in at least one power generator mounted on board the vehicle.
A system for non-contact detection of an absolute position of moving object by making use of the speckle effect comprising; • an illumination block comprising; ∘ a light source which operates in the visible, near-infrared or near-ultraviolet region of the spectrum, and ∘ an illuminating optical system adjustably fixed into a motor-driven translation system configured to be placed between the moving object and the light source, and which is connected to • a controlling and evaluating system having a memory for storing speckle field images, and • an image sensor configured to be placed in a selected plane of observation of the moving object and connected to the said controlling and evaluating system, and • an optical imaging system configured to be located between the image sensor and the moving object, and • a rotary and translation component for calibrating the system for detecting the absolute position of the object, and which is connected to the controlling and evaluating system, and configured to be coupled to the said moving object during a calibration phase, wherein the light source, the motor-driven translation system, the controlling and evaluating system and the rotary and translation component are connected to a power supply, characterized in that the controlling and evaluating system is configured to determine the absolute position of the object, in a detection phase, by correlating the speckle field image from the object with a set of images recorded and saved during the calibration phase, one saved image for each possible position of said object. • an illumination block comprising; ∘ a light source which operates in the visible, near-infrared or near-ultraviolet region of the spectrum, and ∘ an illuminating optical system adjustably fixed into a motor-driven translation system configured to be placed between the moving object and the light source, and which is connected to ∘ a light source which operates in the visible, near-infrared or near-ultraviolet region of the spectrum, and ∘ an illuminating optical system adjustably fixed into a motor-driven translation system configured to be placed between the moving object and the light source, and which is connected to • a controlling and evaluating system having a memory for storing speckle field images, and • an image sensor configured to be placed in a selected plane of observation of the moving object and connected to the said controlling and evaluating system, and • an optical imaging system configured to be located between the image sensor and the moving object, and • a rotary and translation component for calibrating the system for detecting the absolute position of the object, and which is connected to the controlling and evaluating system, and configured to be coupled to the said moving object during a calibration phase,
Moisture separator configuration for separating water droplets from steam of a flow comprising a mixture of steam and water droplets, such that the cited flow travels through the moisture separator configuration so that this separation is achieved, the moisture separator configuration comprising a first plurality of plates oriented in line with the flow, wherein the first plurality of plates form channels though which the flow travels, the channels having progressive cross section variation along the flow direction, in order to collect progressively the water droplets separated from the steam in the flow, wherein each one of the first plurality of plates comprises a plurality of longitudinal grooves on one of its wall sides configuring a plurality of drainage channels, wherein a second plurality of plates is present wherein respective pairs of plates of one of the first plurality of plates and one of the second plurality of plates form a Venturi channel, and characterized in that each of the second plurality of plates comprises a plurality of window openings forming a passage for the flow and prevents vibrations in the moisture separator configuration.
Drive system for a vehicle, comprising a main drive train, an auxiliary drive train and a primary machine which has a primary drive shaft and can be drive-connected to the main drive train and the auxiliary drive train, wherein a planetary gear is arranged in the auxiliary drive train, which planetary gear has at least one auxiliary drive shaft connected or connectable to the primary machine, an auxiliary drive shaft connected or connectable to at least one secondary machine and an auxiliary output shaft connected or connectable to a power take-off shaft, wherein the auxiliary drive shaft connected or connectable to the primary machine can be braked via at least one first braking device, characterised in that the auxiliary output shaft can be braked via at least one second braking device, the primary machine can be drive-connected to the main drive train via a first shift clutch and to the auxiliary drive train via a second shift clutch, wherein the auxiliary drive shaft is drive-connectable to the main drive train via at least one third shift clutch.
Substation, comprising: - a transformer; - a gas-insulated switchgear which is arranged inside a housing filled with air and is conductively connected to the transformer via an electrical connection, wherein the housing of the switchgear is connected to the transformer via a flange connection surrounding the electrical connection, wherein the housing of the switchgear is thermally decoupled from the transformer, wherein the housing of the switchgear is spatially distanced from the transformer by a gap between the housing and the transformer, wherein the flange connection comprises a housing flange mounted on the housing and a mating flange connecting to said housing flange, wherein the mating flange is mounted on the outside of a dome (24, 26) surrounding the electrical connection, wherein the electrical connection is routed through an oil-gas feedthrough which is positioned at a transition from a switchgear-side dome connected to the switchgear to a transformer-side dome connected to the transformer, wherein the mating flange is mounted on the outside of the transformer-side dome and wherein the transformer-side dome is fastened to the transformer, protrudes into the housing of the switchgear and is surrounded by the housing flange. - a transformer; - a gas-insulated switchgear which is arranged inside a housing filled with air and is conductively connected to the transformer via an electrical connection, wherein the housing of the switchgear is connected to the transformer via a flange connection surrounding the electrical connection, wherein the housing of the switchgear is thermally decoupled from the transformer, wherein the housing of the switchgear is spatially distanced from the transformer by a gap between the housing and the transformer, wherein the flange connection comprises a housing flange mounted on the housing and a mating flange connecting to said housing flange, wherein the mating flange is mounted on the outside of a dome (24, 26) surrounding the electrical connection, wherein the electrical connection is routed through an oil-gas feedthrough which is positioned at a transition from a switchgear-side dome connected to the switchgear to a transformer-side dome connected to the transformer, wherein the mating flange is mounted on the outside of the transformer-side dome and wherein the transformer-side dome is fastened to the transformer, protrudes into the housing of the switchgear and is surrounded by the housing flange.