mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a wind turbine in an off-grid mode (M self, M wait), the wind turbine comprising a thermal assembly having an external liquid-to-air heat exchanger arranged to lower the temperature of a liquid coolant in a coolant circuit, which coolant circuit is arranged to convey the liquid coolant to a number of heat-dissipating components (23, 24) in the nacelle interior (20_int) during operation of the wind turbine; the method being characterized by the steps of: - excluding the external liquid-to-air heat exchanger from the coolant circuit; - storing thermal energy dissipated by the number of heat-dissipating components (23, 24) during a first off-grid mode (M self) during which the wind turbine is operated to generate power for its own consumption; and - releasing the stored thermal energy to the nacelle interior (20_int) during a second off-grid mode (M wait) during which the wind turbine does not generate power. - excluding the external liquid-to-air heat exchanger from the coolant circuit; - storing thermal energy dissipated by the number of heat-dissipating components (23, 24) during a first off-grid mode (M self) during which the wind turbine is operated to generate power for its own consumption; and - releasing the stored thermal energy to the nacelle interior (20_int) during a second off-grid mode (M wait) during which the wind turbine does not generate power.
A composite structural board comprising: a) a structural board; and b) a water-resistant barrier sheet having a basis weight 100 g/m2 or less, a hydrostatic head of 55 cm or greater, a Gurley Hill porosity of 250 seconds or greater, and a moisture vapor transmission rate, of at least 130 g/m2/24 hrs, the water-resistant barrier sheet having an inner face and an outer face; and wherein a face of the structural board is discontinuously attached to the inner face of the water-resistant barrier sheet solely by a first adhesive, the water-resistant barrier sheet fully covering the face of the structural board; wherein the composite structural board has i) attached areas between the face of the structural board and the inner face of the water-resistant barrier sheet, and ii) unattached areas between the face of the structural board and the inner face of the water-resistant barrier sheet; the unattached areas between the face of the structural board and the inner face of the water-resistant barrier sheet defining paths by which a liquid can move between the face of the structural board and the inner face of the water-resistant barrier sheet; wherein an area or border along at least one edge of the structural board has a length of about 5 to 25 centimeters (about 2 inches to 10 inches) from the edge of the structural board is attached to the water-resistant barrier solely with a non-permanent adhesive. a) a structural board; and b) a water-resistant barrier sheet having a basis weight 100 g/m2 or less, a hydrostatic head of 55 cm or greater, a Gurley Hill porosity of 250 seconds or greater, and a moisture vapor transmission rate, of at least 130 g/m2/24 hrs, the water-resistant barrier sheet having an inner face and an outer face; and wherein a face of the structural board is discontinuously attached to the inner face of the water-resistant barrier sheet solely by a first adhesive, the water-resistant barrier sheet fully covering the face of the structural board; wherein the composite structural board has i) attached areas between the face of the structural board and the inner face of the water-resistant barrier sheet, and ii) unattached areas between the face of the structural board and the inner face of the water-resistant barrier sheet; i) attached areas between the face of the structural board and the inner face of the water-resistant barrier sheet, and ii) unattached areas between the face of the structural board and the inner face of the water-resistant barrier sheet; the unattached areas between the face of the structural board and the inner face of the water-resistant barrier sheet defining paths by which a liquid can move between the face of the structural board and the inner face of the water-resistant barrier sheet; wherein an area or border along at least one edge of the structural board has a length of about 5 to 25 centimeters (about 2 inches to 10 inches) from the edge of the structural board is attached to the water-resistant barrier solely with a non-permanent adhesive.
A method, comprising: transmitting, by a network node, a configuration of at least two aperiodic channel state information reporting modes per at least one configured downlink component carrier to at least one user equipment; and transmitting an aperiodic channel state information trigger to the at least one user equipment, wherein the transmitting of the aperiodic channel state information trigger causes the at least one user equipment to dynamically switch between the at least two configured aperiodic channel state information reporting modes, wherein the transmitting of the aperiodic channel state information trigger causes the at least one user equipment to apply a first of the at least two aperiodic channel state information reporting modes when the aperiodic channel state information trigger is associated implicitly with at least one determined downlink component carrier, wherein the implicit association is determined based on a serving cell which carries an uplink grant or a downlink assignment including the aperiodic channel state information trigger, or the implicit association is determined based on the serving cell which will carry a physical uplink shared channel including an aperiodic channel state information report. transmitting, by a network node, a configuration of at least two aperiodic channel state information reporting modes per at least one configured downlink component carrier to at least one user equipment; and transmitting an aperiodic channel state information trigger to the at least one user equipment, wherein the transmitting of the aperiodic channel state information trigger causes the at least one user equipment to dynamically switch between the at least two configured aperiodic channel state information reporting modes, wherein the transmitting of the aperiodic channel state information trigger causes the at least one user equipment to apply a first of the at least two aperiodic channel state information reporting modes when the aperiodic channel state information trigger is associated implicitly with at least one determined downlink component carrier, wherein the implicit association is determined based on a serving cell which carries an uplink grant or a downlink assignment including the aperiodic channel state information trigger, or the implicit association is determined based on the serving cell which will carry a physical uplink shared channel including an aperiodic channel state information report.
A computer implemented method to generate code from original source code, whereby the original source code includes at least one jump instruction and exists in a source programming language, the method comprising: - creation of intermediate code from the original source code by omitting the at least one jump instruction, the intermediate code existing in a destination programming language, - loading the intermediate code into a code manipulation unit, and - creation, via the code manipulation unit, of destination source code from the intermediate code, whereby the creation comprises an insertion of at least one source code fragment into the destination source code, whereby the inserted at least one source code fragment is functionally equivalent to the at least one omitted jump instruction, and whereby the at least one inserted source code fragment comprises - an instruction which throws an exception, - at least one loop statement inside the source code for the exception handling, - at least one switch statement inside a try block within the loop statement, - a corresponding catch block which catches the exception, and loops back to the loop statement, and - an auxiliary variable which holds the destination of the jump and which is evaluated by the switch statement. - creation of intermediate code from the original source code by omitting the at least one jump instruction, the intermediate code existing in a destination programming language, - loading the intermediate code into a code manipulation unit, and - creation, via the code manipulation unit, of destination source code from the intermediate code, whereby the creation comprises an insertion of at least one source code fragment into the destination source code, whereby the inserted at least one source code fragment is functionally equivalent to the at least one omitted jump instruction, and whereby the at least one inserted source code fragment comprises - an instruction which throws an exception, - at least one loop statement inside the source code for the exception handling, - at least one switch statement inside a try block within the loop statement, - a corresponding catch block which catches the exception, and loops back to the loop statement, and - an auxiliary variable which holds the destination of the jump and which is evaluated by the switch statement. - an instruction which throws an exception, - at least one loop statement inside the source code for the exception handling, - at least one switch statement inside a try block within the loop statement, - a corresponding catch block which catches the exception, and loops back to the loop statement, and - an auxiliary variable which holds the destination of the jump and which is evaluated by the switch statement.
Use of an underlayer coating forming composition in a method for forming an underlayer coating in the manufacture of a semiconductor device, comprising coating the underlayer coating forming composition on a substrate and baking it, wherein the underlayer coating forming composition is characterized by comprising (a-1) a polymer compound having an epoxy group and (a-2) a compound with a molecular weight of 2000 or less having at least two carboxyl groups or protected carboxyl groups; or (b-1) a polymer compound having a carboxyl group, a protected carboxyl group, an acid anhydride structure or a phenolic hydroxyl group and (b-2) a compound with a molecular weight of 2000 or less having at least two epoxy groups; wherein the composition contains no sulfonic acid compound. (a-1) a polymer compound having an epoxy group and (a-2) a compound with a molecular weight of 2000 or less having at least two carboxyl groups or protected carboxyl groups; or (b-1) a polymer compound having a carboxyl group, a protected carboxyl group, an acid anhydride structure or a phenolic hydroxyl group and (b-2) a compound with a molecular weight of 2000 or less having at least two epoxy groups;
A welding system (100; 200) that includes a welding power source a welding system controller and a welding related sensor (108, 110; 211) connected to said welding system controller and tracking welding, characterized in that the welding system (100; 200) further comprises a weld cell related activity tracking sensor (106, 112, 114, 116; 206, 212, 214, 216) being operatively connected to the welding system controller and tracking a weld cell related task, wherein a weld cell is an area or a room, in which welding and related tasks are performed.
Support structure for a non-driven commercial vehicle, in particular a trailer that can be or is coupled to a tractor unit, comprising: - a number of main side member elements, - a number of crossmember elements, - a number of auxiliary side member elements that are arranged on the main side member elements, in particular so as to extend in parallel with the main side member elements, wherein - at least one auxiliary side member element is formed having at least one receiving region for receiving at least one crossmember element in portions, or comprises at least one receiving region of this kind, - at least one receiving region of at least one auxiliary side member element is designed so as to be open on one side, - the receiving region is formed by a U-shaped recess, open on one side, in the auxiliary side member element, - the recess is oriented towards a substrate when the support structure is in the assembled state, - at least the auxiliary side member elements are formed as profile-like structural elements, characterised in that the dimensions of the recess are adjusted to the dimensions of the crossmember element, such that the crossmember element passes through the recess in the transverse direction. - a number of main side member elements, - a number of crossmember elements, - a number of auxiliary side member elements that are arranged on the main side member elements, in particular so as to extend in parallel with the main side member elements, wherein - at least one auxiliary side member element is formed having at least one receiving region for receiving at least one crossmember element in portions, or comprises at least one receiving region of this kind, - at least one receiving region of at least one auxiliary side member element is designed so as to be open on one side, - the receiving region is formed by a U-shaped recess, open on one side, in the auxiliary side member element, - the recess is oriented towards a substrate when the support structure is in the assembled state, - at least the auxiliary side member elements are formed as profile-like structural elements,
A protective coating composition comprising: a) an aqueous continuous liquid phase; and b) acidified silica nanoparticles dispersed in the aqueous continuous liquid phase, wherein the acidified silica nanoparticles comprise mixed hydrophilic and oleophobic surface functionalization, wherein the hydrophilic surface functionalization is obtained by covalently linking the silica nanoparticle to an organofunctional moiety comprising a functional group selected from the group consisting of polyalkyleneoxy-containing moieties and zwitterionic moieties, and wherein the oleophobic surface functionalization is obtained by covalently linking the silica nanoparticle to an organofunctional moiety comprising a functional group selected from fluorine-containing moieties, and wherein the mixed hydrophilic and oleophobic surface functionalization is obtained by providing acidified silica nanoparticles having exclusively hydrophilic surface functionalization in combination with acidified silica nanoparticles having exclusively oleophobic surface functionalization. a) an aqueous continuous liquid phase; and b) acidified silica nanoparticles dispersed in the aqueous continuous liquid phase, wherein the acidified silica nanoparticles comprise mixed hydrophilic and oleophobic surface functionalization, wherein the hydrophilic surface functionalization is obtained by covalently linking the silica nanoparticle to an organofunctional moiety comprising a functional group selected from the group consisting of polyalkyleneoxy-containing moieties and zwitterionic moieties, and wherein the oleophobic surface functionalization is obtained by covalently linking the silica nanoparticle to an organofunctional moiety comprising a functional group selected from fluorine-containing moieties, and wherein the mixed hydrophilic and oleophobic surface functionalization is obtained by providing acidified silica nanoparticles having exclusively hydrophilic surface functionalization in combination with acidified silica nanoparticles having exclusively oleophobic surface functionalization.
A system, comprising: at least one image capture device configured to acquire a plurality of images of an area in a vicinity of a user vehicle; a data interface; and at least one processing device (180, 190) configured to: receive the plurality of images captured by the image capture device through the data interface; process the images to estimate a predicted path of the vehicle; and compute a vertical contour of a road along the predicted path of the user vehicle, wherein the vertical contour is associated with a spatial or temporal reference specifying a time for a suspension control system of the user vehicle to act upon the vertical contour. at least one image capture device configured to acquire a plurality of images of an area in a vicinity of a user vehicle; a data interface; and at least one processing device (180, 190) configured to: receive the plurality of images captured by the image capture device through the data interface; process the images to estimate a predicted path of the vehicle; and compute a vertical contour of a road along the predicted path of the user vehicle, wherein the vertical contour is associated with a spatial or temporal reference specifying a time for a suspension control system of the user vehicle to act upon the vertical contour. receive the plurality of images captured by the image capture device through the data interface; process the images to estimate a predicted path of the vehicle; and compute a vertical contour of a road along the predicted path of the user vehicle, wherein the vertical contour is associated with a spatial or temporal reference specifying a time for a suspension control system of the user vehicle to act upon the vertical contour.
An isolated antibody that is capable of binding to the alloantigen HPA-1a and which does not significantly bind to the alloantigen HPA-1b, and that comprises at least one heavy chain variable region that comprises three CDRs and at least one light chain variable region that comprises three CDRs, wherein said light chain variable region comprises: (a) a variable light CDR1 that has the amino acid sequence of SEQ ID NO:8, (b) a VL CDR2 that has the amino acid sequence of SEQ ID NO:9, and (c) a VL CDR3 that has the amino acid sequence of SEQ ID NO:10; and wherein said heavy chain variable region comprises: (d) a variable heavy CDR1 that has the amino acid sequence of SEQ ID NO:5, (e) a VH CDR2 that has the amino acid sequence of SEQ ID NO:6, and (f) a VH CDR3 that has the amino acid sequence of SEQ ID NO:7. (a) a variable light CDR1 that has the amino acid sequence of SEQ ID NO:8, (b) a VL CDR2 that has the amino acid sequence of SEQ ID NO:9, and (c) a VL CDR3 that has the amino acid sequence of SEQ ID NO:10; and wherein said heavy chain variable region comprises: (d) a variable heavy CDR1 that has the amino acid sequence of SEQ ID NO:5, (e) a VH CDR2 that has the amino acid sequence of SEQ ID NO:6, and (f) a VH CDR3 that has the amino acid sequence of SEQ ID NO:7.
A scan and step exposure system comprising: an exposure body having a front gate selectively being open or closed; a chuck tray having a base plate and a cylinder fix plate spaced from each other at the front and the rear inside the exposure body, and a pair of chuck tray driving cylinders placed across between the base plate and the cylinder fix plate, and a porous chuck placed to be drawn into or out of the exposure body while movable by the chuck tray driving cylinder and slidable along fixed rails fixed at both sides of the base plate; a mask holder being integrally connected with a plurality of guide rods installed on every side of the base plate to pass through the base plate, and selectively movable up and down on the chuck tray by a holder elevating cylinder provided at the middle rear side of the base plate; and an exposure module slidable along LM rails attached to the top of a rail support installed behind the mask holder in the transverse direction, wherein the exposure system is configured to enable the exposure module to move by scan way or move by step feed in the transverse direction by an exposure module transfer motor, and perform the exposure on an exposure subject placed by adsorption on the chuck tray. an exposure body having a front gate selectively being open or closed; a chuck tray having a base plate and a cylinder fix plate spaced from each other at the front and the rear inside the exposure body, and a pair of chuck tray driving cylinders placed across between the base plate and the cylinder fix plate, and a porous chuck placed to be drawn into or out of the exposure body while movable by the chuck tray driving cylinder and slidable along fixed rails fixed at both sides of the base plate; a mask holder being integrally connected with a plurality of guide rods installed on every side of the base plate to pass through the base plate, and selectively movable up and down on the chuck tray by a holder elevating cylinder provided at the middle rear side of the base plate; and an exposure module slidable along LM rails attached to the top of a rail support installed behind the mask holder in the transverse direction, wherein the exposure system is configured to enable the exposure module to move by scan way or move by step feed in the transverse direction by an exposure module transfer motor, and perform the exposure on an exposure subject placed by adsorption on the chuck tray.
Integrated circuit comprising at least one domain comprising a physically unclonable function device, the said device comprising a set of MOS transistors (TR1i, TR2j) exhibiting a random distribution of respective threshold voltages, first coupling means (MR, BLCD) coupling a group of N first transistors (TR1i) of the said set and at least one second transistor (TR2j) of the said set via at least one common node (NCj), second coupling means (CMPj) between each common node (NCj) and a corresponding output node (NSj) of the said function, the first coupling means being configured to take at least one first state in which they are able, when the said domain is powered, to generate a principal current and to distribute the principal current in the N first transistors so as to generate for each first transistor a first mean gate source voltage (VGSM), to bias the gate of each second transistor (TR2j) by the said first mean gate source voltage, and to deliver to each common node a reference current (IRj) equal to a base current corresponding to 1/N th of the principal current, and the second coupling means (CMPj) are configured to deliver to each output node an output signal (SSj) whose level depends on a comparison between the level of the reference current (IRj) and the level of the current (ITRj) passing through the corresponding second transistor (TR2j).
A method for inspecting a metallic structure, the method comprising: sending a first signal into a first location in the metallic structure and a second signal into a second location in the metallic structure at substantially a same time, wherein the first signal is sent into the first location in the metallic structure from a first opening in a first waveguide; wherein the second signal is sent into the second location in the metallic structure from a second opening in a second waveguide; moving the first waveguide and the second waveguide in a direction such that a fastener passes between the first waveguide and the second waveguide, and the first opening is offset from the second opening in the direction of movement; receiving a first response to the first signal and a second response to the second signal; comparing the first response with the second response to form a comparison; and determining whether an inconsistency is present using the comparison. sending a first signal into a first location in the metallic structure and a second signal into a second location in the metallic structure at substantially a same time, wherein the first signal is sent into the first location in the metallic structure from a first opening in a first waveguide; wherein the second signal is sent into the second location in the metallic structure from a second opening in a second waveguide; moving the first waveguide and the second waveguide in a direction such that a fastener passes between the first waveguide and the second waveguide, and the first opening is offset from the second opening in the direction of movement; receiving a first response to the first signal and a second response to the second signal; comparing the first response with the second response to form a comparison; and determining whether an inconsistency is present using the comparison.