mhurhangee/ep-ind-claims huggingface dataset:
A lighting system comprising a plurality of modules (3;30), the modules (3;30) respectively comprising: - a housing provided with an exit window; - at least one light source (5;35) provided in the housing; wherein the lighting system further comprises: - a controller arranged to drive light source(s) (5,35); - an electrical circuit (13;43) arranged to connect light source(s) with the controller, the electrical circuit further comprising a first pair of electrical contacts provided in a first module and a second pair of electrical contacts provided in a second module, the first and second pair of contacts being arranged for a mutual electrical connection; wherein the first module further comprises a first connector provided with the first pair of electrical contacts (14,15) and the second module further comprises a second connector provided with the second pair of electrical contacts (16,17; 46,47), the first and second connectors being arranged to cooperate so as to mount the first and second modules (3,30) to each other and to implement said mutual electrical connection, characterized in that the electrical circuit comprises a removable electrical conductor between the electrical contacts (46,47) of the second pair of electrical contacts in the second module. - a housing provided with an exit window; - at least one light source (5;35) provided in the housing; wherein the lighting system further comprises: - a controller arranged to drive light source(s) (5,35); - an electrical circuit (13;43) arranged to connect light source(s) with the controller, the electrical circuit further comprising a first pair of electrical contacts provided in a first module and a second pair of electrical contacts provided in a second module, the first and second pair of contacts being arranged for a mutual electrical connection; wherein the first module further comprises a first connector provided with the first pair of electrical contacts (14,15) and the second module further comprises a second connector provided with the second pair of electrical contacts (16,17; 46,47), the first and second connectors being arranged to cooperate so as to mount the first and second modules (3,30) to each other and to implement said mutual electrical connection, characterized in that the electrical circuit comprises a removable electrical conductor between the electrical contacts (46,47) of the second pair of electrical contacts in the second module.
Electrical connecting structure comprising an electrical plug-in connector with an electrically insulating plug housing, wherein the electrical connecting structure is designed to electrically conductively connect the electrical plug-in connector to an electrical mating plug-in connector, which is fixedly connected to an electrical assembly, for the purpose of transmitting high currents, wherein the connecting structure has a first electrical line, wherein the first electrical line is designed to transmit a first electric current with a first phase angle, wherein the connecting structure has a second electrical line, wherein the second electrical line is designed to transmit a second electric current with a second phase angle, wherein the first phase angle and the second phase angle are shifted in relation to one another with respect to time, wherein the first line has a first shield against electromagnetic interference, wherein the second line has a second shield against electromagnetic interference, wherein the first shield can be electrically conductively connected in a releasable manner to a third shield which is arranged in the mating plug-in connector, wherein the second shield can be electrically conductively connected in a releasable manner to a fourth shield which is arranged in the mating plug-in connector, wherein the first electrical line and the second electrical line each have a cross section of from 25 to 50 mm 2, the first shield and the second shield are different from one another, the first shield and the second shield are electrically conductively connected to one another within the electrical connecting structure, characterized in that the first shield and the second shield are electrically conductively connected to one another outside the electrical plug-in connector.
An actinic radiation-curable inkjet ink, comprising an actinic radiation-polymerizable compound, surface-treated titanium oxide, and a wax, wherein the surface-treated titanium oxide contains carbon atoms in an amount of 0.31mass% to 2.0mass% based on a total mass thereof.
A method for detecting an analyte of interest in a sample, the method comprising: providing a container adapted to contain the sample, the container comprising a microstructured surface configured to provide capillary forces to retain a sample of interest; centrifuging the container toward the microstructured surface to form a sediment and a supernatant of the sample; inverting the container, after centrifuging the container, to decant at least a portion of the supernatant of the sample from the microstructured surface, such that a concentrate of the sample is retained in the microstructured surface, the concentrate comprising the sediment; the method further being characterised in that it comprises interrogating the concentrate in the microstructured surface for the analyte of interest. providing a container adapted to contain the sample, the container comprising a microstructured surface configured to provide capillary forces to retain a sample of interest; centrifuging the container toward the microstructured surface to form a sediment and a supernatant of the sample; inverting the container, after centrifuging the container, to decant at least a portion of the supernatant of the sample from the microstructured surface, such that a concentrate of the sample is retained in the microstructured surface, the concentrate comprising the sediment; the method further being characterised in that it comprises interrogating the concentrate in the microstructured surface for the analyte of interest.
A pressure accumulator having a membrane forming a moveable separating element between media spaces (6, 8) and which is made of contiguous layers (16, 18, 20 22, 24, 26) of different materials, at least one layer of a base structure (16, 20) comprising filaments and provided with a gas-tight impregnation being provided between layers made of an elastomer, characterised in that the respective base structure (16, 20) comprising filaments comprises a textile, a knitted fabric, a crocheted fabric or a non-woven.
A method for determining a heart rate of a user of a computing device, the method comprising: detecting fluctuations in capacitance from a portion of a user's hand in contact with the computing device, the fluctuations detected with capacitive touch sensors of a presence-sensitive display component of the computing device that are used to detect touch inputs to control operations of the computing device; determining times during which the portion of the user's hand contacts the computing device and locations of the computing device at which the portion of the user's hand makes contact, the times and the locations determined from raw capacitance data indicative of the detected fluctuations, the raw capacitance data configured as timestamped two-dimensional capacitance readings for the presence-sensitive display component; extracting portions of the raw capacitance data as frames with corresponding timestamps, the portions indicating the fluctuations in capacitance that are detected within a fixed-size region around the locations at which the portion of the user's hand is determined to contact the computing device; summing indications of the capacitance in each frame to generate a one-dimensional aggregated capacitance for each frame; arranging the 1D aggregated capacitances for the frames according to the corresponding timestamps; isolating heartbeat waveforms from interferences in the raw capacitance data that corresponds to the times and the locations based on a temporal regularity and frequency range of heartbeats; and analyzing the isolated heartbeat waveforms to determine a heart rate of the user. detecting fluctuations in capacitance from a portion of a user's hand in contact with the computing device, the fluctuations detected with capacitive touch sensors of a presence-sensitive display component of the computing device that are used to detect touch inputs to control operations of the computing device; determining times during which the portion of the user's hand contacts the computing device and locations of the computing device at which the portion of the user's hand makes contact, the times and the locations determined from raw capacitance data indicative of the detected fluctuations, the raw capacitance data configured as timestamped two-dimensional capacitance readings for the presence-sensitive display component; extracting portions of the raw capacitance data as frames with corresponding timestamps, the portions indicating the fluctuations in capacitance that are detected within a fixed-size region around the locations at which the portion of the user's hand is determined to contact the computing device; summing indications of the capacitance in each frame to generate a one-dimensional aggregated capacitance for each frame; arranging the 1D aggregated capacitances for the frames according to the corresponding timestamps; isolating heartbeat waveforms from interferences in the raw capacitance data that corresponds to the times and the locations based on a temporal regularity and frequency range of heartbeats; and analyzing the isolated heartbeat waveforms to determine a heart rate of the user.
Device for making a beverage on the basis of interaction between a beverage basic material and a liquid, comprising: - a heating unit for heating the liquid, - a functional unit for accommodating a quantity of the beverage basic material, the functional unit being positioned at an outlet side of the heating unit for receiving hot liquid from the heating unit during operation of the device, and - a valve unit that is configured and arranged to allow liquid communication between the functional unit and the heating unit, in an open position thereof, and to block liquid communication between the functional unit and the heating unit, in a closed position thereof, the valve unit comprising a membrane being positioned at an interface of an inlet of the functional unit and an outlet of the heating unit, and a biasing member for biasing the membrane towards a position for realizing the closed position of the valve unit, characterized in that the inlet of the functional unit is configured and arranged to be open towards a central portion of the membrane, and wherein the outlet of the heating unit is configured and arranged to be open towards a ring-shaped portion of the membrane encompassing the central portion. - a heating unit for heating the liquid, - a functional unit for accommodating a quantity of the beverage basic material, the functional unit being positioned at an outlet side of the heating unit for receiving hot liquid from the heating unit during operation of the device, and - a valve unit that is configured and arranged to allow liquid communication between the functional unit and the heating unit, in an open position thereof, and to block liquid communication between the functional unit and the heating unit, in a closed position thereof, the valve unit comprising a membrane being positioned at an interface of an inlet of the functional unit and an outlet of the heating unit, and a biasing member for biasing the membrane towards a position for realizing the closed position of the valve unit, characterized in that the inlet of the functional unit is configured and arranged to be open towards a central portion of the membrane, and wherein the outlet of the heating unit is configured and arranged to be open towards a ring-shaped portion of the membrane encompassing the central portion.
A system comprising: at least one physical memory device to store drop size logic; and one or more processors coupled with the at least one physical memory device to execute the drop size logic to generate drop size data associated with a printing system based on ink deposition data for a print medium and ink drop count data; wherein the drop size data is generated based on a plurality of print system characteristics, wherein the print system characteristics comprise gray levels, wherein the drop size data is generated by performing a drop size regression, wherein the drop size regression determines a best fit of drop sizes for a plurality of gray levels to determine an ink deposition per area equal to the ink deposition data, wherein the ink deposition is determined for each gray level using the drop size regression. at least one physical memory device to store drop size logic; and one or more processors coupled with the at least one physical memory device to execute the drop size logic to generate drop size data associated with a printing system based on ink deposition data for a print medium and ink drop count data; wherein the drop size data is generated based on a plurality of print system characteristics, wherein the print system characteristics comprise gray levels, wherein the drop size data is generated by performing a drop size regression, wherein the drop size regression determines a best fit of drop sizes for a plurality of gray levels to determine an ink deposition per area equal to the ink deposition data, wherein the ink deposition is determined for each gray level using the drop size regression.
A system for forming an isolation line with a series of point contact lesions, comprising: an elongate flexible catheter, said catheter including a distal portion having an ablation head operatively coupled with an energy source, a force sensor and a position sensing device, said energy source, said force sensor and said position sensing device being operatively coupled with a processor configured for: forming a plurality of lesions by point contact ablation; determining the transmurality of the lesions of said plurality of lesions; and determining the continuity of the isolation line formed by the plurality of lesions, wherein for determining the continuity of the isolation line formed by the plurality of lesions said processor is configured to sense a location of each of the plurality of lesions during the forming of the plurality of lesions, determine if a jump occurred between each consecutively formed pair of lesions of said plurality of lesions, said jump being defined by a predetermined criteria of spatial separation between the lesions of said consecutively formed pairs of lesions, increment a jump index for each jump detected in the formation of said plurality of lesions, and determining a probability of gap formation along said isolation line based on said jump index and force data indicative of lesion size. forming a plurality of lesions by point contact ablation; determining the transmurality of the lesions of said plurality of lesions; and determining the continuity of the isolation line formed by the plurality of lesions, wherein for determining the continuity of the isolation line formed by the plurality of lesions said processor is configured to sense a location of each of the plurality of lesions during the forming of the plurality of lesions, determine if a jump occurred between each consecutively formed pair of lesions of said plurality of lesions, said jump being defined by a predetermined criteria of spatial separation between the lesions of said consecutively formed pairs of lesions, increment a jump index for each jump detected in the formation of said plurality of lesions, and determining a probability of gap formation along said isolation line based on said jump index and force data indicative of lesion size. sense a location of each of the plurality of lesions during the forming of the plurality of lesions, determine if a jump occurred between each consecutively formed pair of lesions of said plurality of lesions, said jump being defined by a predetermined criteria of spatial separation between the lesions of said consecutively formed pairs of lesions, increment a jump index for each jump detected in the formation of said plurality of lesions, and determining a probability of gap formation along said isolation line based on said jump index and force data indicative of lesion size.
A process to mitigate oligomer formation in an olefin polymerization process in a polymerization reactor utilizing a biphenylphenolic polymerization catalyst comprising adding one or more treated aluminum-based scavengers to the polymerization reactor, wherein said one or more treated aluminum-based scavengers comprise the reaction product of an alkylaluminum or an aluminoxane specie with a compound of the general Formula I, wherein X is O, N, or S and R is alkyl, aryl, heteroalkyl, heteroaryl, or hydrogen, wherein n=1 if X is O or S and n=2 if X is N, wherein at least one R is not a hydrogen; R n -X-H Formula I and wherein the biphenylphenolic polymerization catalyst comprises a procatalyst component comprising a metal-ligand complex of the general Formula II, wherein M is titanium, zirconium, or hafnium, each independently being in a formal oxidation state of +2, +3, or +4; wherein n is an integer of from 0 to 3, and wherein when n is 0, X is absent; and wherein each X independently is a monodentate ligand that is neutral, monoanionic, or dianionic; or two Xs are taken together to form a bidentate ligand that is neutral, monoanionic, or dianionic; and X and n are chosen in such a way that the metal-ligand complex of formula is, overall, neutral; wherein each Z independently is O, S, N(C 1 -C 40)hydrocarbyl, or P(C 1 -C 40)hydrocarbyl; wherein O is O; wherein L is (C 1 -C 40)hydrocarbylene or (C 1 -C 40)heterohydrocarbylene, wherein the (C 1 -C 40)hydrocarbylene has a portion that comprises a 1-carbon atom to 10-carbon atom linker backbone linking the two Z groups in formula (to which L is bonded) or the (C 1 -C 40)heterohydrocarbylene has a portion that comprises a 1-atom to 10-atom linker backbone linking the two Z groups in formula, wherein each of the 1 to 10 atoms of the 1-atom to 10-atom linker backbone of the (C 1 -C 40)heterohydrocarbylene independently is a carbon atom or heteroatom, wherein each heteroatom independently is O, S, S, S 2, Si(R C) 2, Ge(R C) 2, P(R C), or N(R C), wherein independently each R C is (C 1 -C 30)hydrocarbyl or (C 1 -C 30) heterohydrocarbyl; and wherein R 1-16 are selected from the group consiting of a (C 1 -C 40)hydrocarbyl, (C 1 -C 40)heterohydrocarbyl, Si(R C) 3, Ge(R C) 3, P(R C) 2, N(R C) 2, OR C, SR C, NO 2, CN, CF 3, R C S, R C S 2, (R C) 2 C=N, R C C O, R C OC, R C C N, (R C) 2 NC, halogen atom, hydrogen atom, and combination thereof.
Method for upending a monopile of an offshore wind turbine from a horizontal position on a vessel to an upended vertical position of said monopile, the monopile being supported in the horizontal position by the vessel with the ends thereof extending beyond the vessel; the vessel comprising a crane adapted to support a hoisting tool, which hoisting tool is adapted to be connected to an end of the monopile while being supported by the crane; the vessel further comprising an anti-swing device mounted to the vessel, adapted to prevent swing of the suspended hoisting tool; the method comprising the steps of: a) providing the anti-swing device along the monopile and extending beyond the monopile end; b) moving, by means of the crane, the hoisting tool into a proximate position thereof in which the hoisting tool is longitudinally spaced from the monopile end and in which the radial contour of the hoisting tool at least overlaps with the radial contour of the monopile end, in which proximate position the hoisting tool is supported by the crane; c) engaging the hoisting tool by the anti-swing device, in the proximate position of the hoisting tool, the anti-swing device thereby preventing swing of the suspended hoisting tool; d) moving the suspended hoisting tool from the proximate position into a connection position longitudinally aligned with the monopile end, while the hoisting tool maintains being supported by the crane and engaged by the anti-swing device; e) connecting the hoisting tool to the monopile end and suspending the monopile end via the hoisting tool from the crane, f) disengaging the hoisting tool from the anti-swing device, g) hoisting by means of the crane the monopile end connected to the hoisting tool. a) providing the anti-swing device along the monopile and extending beyond the monopile end; b) moving, by means of the crane, the hoisting tool into a proximate position thereof in which the hoisting tool is longitudinally spaced from the monopile end and in which the radial contour of the hoisting tool at least overlaps with the radial contour of the monopile end, in which proximate position the hoisting tool is supported by the crane; c) engaging the hoisting tool by the anti-swing device, in the proximate position of the hoisting tool, the anti-swing device thereby preventing swing of the suspended hoisting tool; d) moving the suspended hoisting tool from the proximate position into a connection position longitudinally aligned with the monopile end, while the hoisting tool maintains being supported by the crane and engaged by the anti-swing device; e) connecting the hoisting tool to the monopile end and suspending the monopile end via the hoisting tool from the crane, f) disengaging the hoisting tool from the anti-swing device, g) hoisting by means of the crane the monopile end connected to the hoisting tool.