mhurhangee/ep-ind-claims huggingface dataset:
A heat exchanger plate configured to be comprised by a plate heat exchanger configured for evaporation of a first fluid, the heat exchanger plate comprising a heat exchanger area extending in parallel with an extension plane (p) of the heat exchanger plate and comprising a corrugation of ridges and valleys, an edge area extending around the heat exchanger area, a number of portholes extending through the heat exchanger area, the portholes comprising a first inlet porthole for said first fluid, a peripheral rim surrounding the first inlet porthole and extending transversely to the extension plane (p) from a root end of the peripheral rim to an edge of the peripheral rim, wherein the peripheral rim has a circumferential length around the first inlet porthole, and at least one restriction hole extending through the peripheral rim, characterized in that the peripheral rim, along the circumferential length, comprises at least one flat or substantially flat portion and that the restriction hole extends through the flat or substantially flat portion, wherein the flat or substantially flat portion of the peripheral rim extends transversely to the extension plane (p) of the heat exchanger plate, and wherein the portholes have a respective flow area and comprise a first outlet porthole for said first fluid, and wherein the flow area of the first inlet porthole is smaller than the flow area of the first outlet porthole. a heat exchanger area extending in parallel with an extension plane (p) of the heat exchanger plate and comprising a corrugation of ridges and valleys, an edge area extending around the heat exchanger area, a number of portholes extending through the heat exchanger area, the portholes comprising a first inlet porthole for said first fluid, a peripheral rim surrounding the first inlet porthole and extending transversely to the extension plane (p) from a root end of the peripheral rim to an edge of the peripheral rim, wherein the peripheral rim has a circumferential length around the first inlet porthole, and at least one restriction hole extending through the peripheral rim,
A fragrance delivery composition comprising: (a) a fragrance longevity enhancing amount of 0.01 wt% to 60 wt% of a neutralized acid-functional silicone of the general formula: M a M i b D c D i d T e T i f Q g wherein M = R 1 R 2 R 3 SiO 1/2; M i = R 4 R 5 R i SiO 1/2; D = R 6 R 7 SiO 2/2; D i = R 8 R i SiO 2/2; T = R 9 SiO 3/2; T i = R i SiO 3/2; Q = SiO 4/2; where R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, and R 9 are each independently selected from the group of monovalent hydrocarbon radicals having from 1 to 60 carbon atoms, R i is a monovalent hydrocarbon radical having from 2 to 60 carbon atoms and containing one or more acid functionality groups selected from the group consisting of carboxylic acid-, phosphonic acid- and sulfonic acid-containing groups, their salts and combinations thereof, and subscripts a, b, c, d, e, f, and g are independently zero or a positive number subject to the limitations b + d + f ≥ 1 and a + b + c + d + e + f < 1000; (b) 0.01 wt% to 10 wt% of a fragrance; and, (c) an emulsion, suspension or organic solvent solution forming amount of water and/or organic solvent (a) a fragrance longevity enhancing amount of 0.01 wt% to 60 wt% of a neutralized acid-functional silicone of the general formula: M a M i b D c D i d T e T i f Q g wherein M = R 1 R 2 R 3 SiO 1/2; M i = R 4 R 5 R i SiO 1/2; D = R 6 R 7 SiO 2/2; D i = R 8 R i SiO 2/2; T = R 9 SiO 3/2; T i = R i SiO 3/2; Q = SiO 4/2; where R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, and R 9 are each independently selected from the group of monovalent hydrocarbon radicals having from 1 to 60 carbon atoms, R i is a monovalent hydrocarbon radical having from 2 to 60 carbon atoms and containing one or more acid functionality groups selected from the group consisting of carboxylic acid-, phosphonic acid- and sulfonic acid-containing groups, their salts and combinations thereof, and subscripts a, b, c, d, e, f, and g are independently zero or a positive number subject to the limitations b + d + f ≥ 1 and a + b + c + d + e + f < 1000; M = R 1 R 2 R 3 SiO 1/2; M i = R 4 R 5 R i SiO 1/2; D = R 6 R 7 SiO 2/2; D i = R 8 R i SiO 2/2; T = R 9 SiO 3/2; T i = R i SiO 3/2; Q = SiO 4/2; R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, and R 9 are each independently selected from the group of monovalent hydrocarbon radicals having from 1 to 60 carbon atoms, R i is a monovalent hydrocarbon radical having from 2 to 60 carbon atoms and containing one or more acid functionality groups selected from the group consisting of carboxylic acid-, phosphonic acid- and sulfonic acid-containing groups, their salts and combinations thereof, and subscripts a, b, c, d, e, f, and g are independently zero or a positive number subject to the limitations b + d + f ≥ 1 and a + b + c + d + e + f < 1000; (b) 0.01 wt% to 10 wt% of a fragrance; and, (c) an emulsion, suspension or organic solvent solution forming amount of water and/or organic solvent
An image decoding method performed by a decoding apparatus, comprising: obtaining image information including residual information and prediction related information through a bitstream; generating residual samples based on the residual information; deriving prediction samples based on the prediction related information; generating reconstructed samples of a current picture, based on the prediction samples and the residual samples; and generating modified reconstructed samples, based on an in-loop filtering process for the reconstructed samples, wherein the image information includes a sequence parameter set, wherein the SPS includes a virtual boundaries enabled flag, characterized in that the SPS includes an SPS virtual boundaries present flag based on a value of the virtual boundaries enabled flag being equal to 1, wherein the SPS includes information on positions of vertical virtual boundaries, information on a number of the vertical virtual boundaries, information on positions of horizontal virtual boundaries, and information on a number of the horizontal virtual boundaries, based on the value of the virtual boundaries enabled flag being equal to 1 and a value of the SPS virtual boundaries present flag being equal to 1, and wherein whether the in-loop filtering process is performed across virtual boundaries is determined, based on the virtual boundaries enabled flag. obtaining image information including residual information and prediction related information through a bitstream; generating residual samples based on the residual information; deriving prediction samples based on the prediction related information; generating reconstructed samples of a current picture, based on the prediction samples and the residual samples; and generating modified reconstructed samples, based on an in-loop filtering process for the reconstructed samples, wherein the image information includes a sequence parameter set, wherein the SPS includes a virtual boundaries enabled flag, characterized in that the SPS includes an SPS virtual boundaries present flag based on a value of the virtual boundaries enabled flag being equal to 1, wherein the SPS includes information on positions of vertical virtual boundaries, information on a number of the vertical virtual boundaries, information on positions of horizontal virtual boundaries, and information on a number of the horizontal virtual boundaries, based on the value of the virtual boundaries enabled flag being equal to 1 and a value of the SPS virtual boundaries present flag being equal to 1, and wherein whether the in-loop filtering process is performed across virtual boundaries is determined, based on the virtual boundaries enabled flag.
A method of determining the outdoor ambient temperature in a system comprising a photovoltaic module, comprising the following steps: a) measuring the short-circuit current I sc and the open-circuit voltage V oc of the photovoltaic module; b) calculating the outdoor ambient temperature T a, by means of an electronic processing device, as a function of the value of the short-circuit current I sc and the value of the open-circuit voltage V oc measured in step a), by means of a unique polynomial mathematical model with two input variables. a) measuring the short-circuit current I sc and the open-circuit voltage V oc of the photovoltaic module; b) calculating the outdoor ambient temperature T a, by means of an electronic processing device, as a function of the value of the short-circuit current I sc and the value of the open-circuit voltage V oc measured in step a), by means of a unique polynomial mathematical model with two input variables.
A method for providing a drone user equipment, UE, indication, comprising: connecting to a wireless network by a UE having flight capabilities (110, 200); and the method being characterized by comprising: transmitting, by the UE, a drone UE indicator to the wireless network to indicate that the UE is an unmanned aircraft system having the flight capabilities, wherein the drone UE indicator is transmitted to the wireless network as part of a Radio Resource Control, RRC, connection request, during a non-access stratum, NAS, attach procedure, or using Medium Access Control, MAC, signaling during a Random Access Procedure, RACH, when establishing the connection to the wireless network. connecting to a wireless network by a UE having flight capabilities (110, 200); and the method being characterized by comprising: transmitting, by the UE, a drone UE indicator to the wireless network to indicate that the UE is an unmanned aircraft system having the flight capabilities, wherein the drone UE indicator is transmitted to the wireless network as part of a Radio Resource Control, RRC, connection request, during a non-access stratum, NAS, attach procedure, or using Medium Access Control, MAC, signaling during a Random Access Procedure, RACH, when establishing the connection to the wireless network.
An optical transmitter comprising: a plurality of input ports; a configurable number of output ports, the plurality of input ports to receive a plurality of optical fields (204a-204n, 303a-303h, 305a-305h, 405a-405h) generated by a tunable laser array (102, 302a-302n, 402a-402n), each output port (208a-208n, 308a-308n, 408a-408n) to receive one or more of the plurality of optical fields by changing a variable bandwidth of the output port to output one or more output wavelengths in an output configuration based on the wavelength of each of the plurality of optical fields; a controller coupled to the output ports to change the number of output ports and change the variable bandwidth of one or more of the output ports a plurality of input ports; a configurable number of output ports, the plurality of input ports to receive a plurality of optical fields (204a-204n, 303a-303h, 305a-305h, 405a-405h) generated by a tunable laser array (102, 302a-302n, 402a-402n), each output port (208a-208n, 308a-308n, 408a-408n) to receive one or more of the plurality of optical fields by changing a variable bandwidth of the output port to output one or more output wavelengths in an output configuration based on the wavelength of each of the plurality of optical fields; a controller coupled to the output ports to change the number of output ports and change the variable bandwidth of one or more of the output ports
A method of fabricating a workpiece, said method comprising: applying a predetermined axial force to a tool; translating the axial force into a radial force in the workpiece using the tool; and generating a hoop stress in the work piece sufficient to relieve residual stress in the workpiece, wherein: the workpiece includes a bore extending therethrough, characterized in that at least a portion of the bore is radially convergent at an inner circumferential surface, and wherein translating the axial force into a radial force in the workpiece comprises pressing a frusto-conical portion of the tool into the bore such that an outer surface of the frusto-conical portion substantially mates to the inner circumferential surface. applying a predetermined axial force to a tool; translating the axial force into a radial force in the workpiece using the tool; and generating a hoop stress in the work piece sufficient to relieve residual stress in the workpiece, wherein: the workpiece includes a bore extending therethrough, characterized in that at least a portion of the bore is radially convergent at an inner circumferential surface, and wherein translating the axial force into a radial force in the workpiece comprises pressing a frusto-conical portion of the tool into the bore such that an outer surface of the frusto-conical portion substantially mates to the inner circumferential surface. the workpiece includes a bore extending therethrough, characterized in that at least a portion of the bore is radially convergent at an inner circumferential surface, and wherein translating the axial force into a radial force in the workpiece comprises pressing a frusto-conical portion of the tool into the bore such that an outer surface of the frusto-conical portion substantially mates to the inner circumferential surface.
Method for managing commands to stop/restart the engine of a motor vehicle executed by an electronic control unit, in which, from a stopped state commanded by the stop/restart system of said engine in which the clutch pedal and/or the brake pedal of the vehicle is pressed: - there is detected, by an appropriate sensor with which said pedal is equipped, the transition thereof through a first position and through a second position distinct from said first position, - the elapsed time (Dt) is calculated between the instants of transition of said pedal through said first and second positions characterized in that said detection by said appropriate sensor occurs during its travel of release from its extreme pressed position to its extreme released position, and in that - said elapsed time (Dt) is compared with a predefined time of transition from said first to said second position during a pedal travel considered to be intentional, - there is deduced, from the abovementioned comparison, a signal representative of the untimely nature of the releasing of said pedal when said elapsed time (Dt) is less than said predetermined time, and - a restarting of said engine is prohibited when the untimely nature of the releasing of said pedal is indicated by said representative signal. - there is detected, by an appropriate sensor with which said pedal is equipped, the transition thereof through a first position and through a second position distinct from said first position, - the elapsed time (Dt) is calculated between the instants of transition of said pedal through said first and second positions - said elapsed time (Dt) is compared with a predefined time of transition from said first to said second position during a pedal travel considered to be intentional, - there is deduced, from the abovementioned comparison, a signal representative of the untimely nature of the releasing of said pedal when said elapsed time (Dt) is less than said predetermined time, and - a restarting of said engine is prohibited when the untimely nature of the releasing of said pedal is indicated by said representative signal.
A compound which is a salt of 1-methyl-7-(1-methyl-1H-pyrazol-4-yl)-5-(4-(trifluoromethoxy)phenyl)-1,5-dihydro-4H-imidazo[4,5-c]pyridin-4-one (Compound I): wherein the salt is selected from the group consisting of besylate, hemi-edisylate, hemi-napadisylate, mono-hydrobromide, mono-nitrate, mono-sulfate, and mono-tosylate salts of Compound I, preferably a mono-tosylate salt of Compound I.
A method for measuring of histamine in an epidermis comprising: a) applying an adhesive article to an epithelium of a mammal; b) allowing for adherence of epithelial cells to the adhesive article; c) removing the adhesive article from the epithelium of the mammal; d) preparing the adhesive article using standard laboratory methods for extraction; e) extracting histamine from the epithelial cells adhered to said adhesive article; f) measuring histamine from the epithelial cells adhered to said adhesive article; g) determining the amount of histamine in the epithelial cells as compared to a baseline sample. a) applying an adhesive article to an epithelium of a mammal; b) allowing for adherence of epithelial cells to the adhesive article; c) removing the adhesive article from the epithelium of the mammal; d) preparing the adhesive article using standard laboratory methods for extraction; e) extracting histamine from the epithelial cells adhered to said adhesive article; f) measuring histamine from the epithelial cells adhered to said adhesive article; g) determining the amount of histamine in the epithelial cells as compared to a baseline sample.
A robotic cleaning device comprising: - a main body (2A, 2B) - an opening arranged in a bottom side of the main body for removing debris from an area (28A, 28B, 28C, 28D, 28E, 28F) to be cleaned; - a brush arranged adjacent to the opening; - a propulsion system configured to move the robotic cleaning device across the area (28A, 28B, 28C, 28D, 28E, 28F); - a positioning system comprising an obstacle detecting device configured to detect obstacles and a processing unit, the obstacle detecting device being configured to record positional data; wherein the processing unit is configured to generate a cleaning pattern (26A, 26B, 26C, 26D, 26E, 26F) from said positional data, said cleaning pattern (26A, 26B, 26C, 26D, 26E, 26F) comprising a plurality of spiral patterns (27A, 27'A, 27B, 27'B, 27D, 27'D, 27E, 27'E, 27F, 27'F, 27"F) having an outer periphery (30A, 30'A, 30B, 30'B, 30C, 30'C, 30D, 30'D, 30E, 30'E), said spiral patterns (27A, 27'A, 27B, 27'B, 27D, 27'D, 27E, 27'E, 27F, 27'F, 27"F) being arranged so that, during the cleaning, the robotic cleaning device spirals itself inwards from the outer periphery (30A, 30'A, 30B, 30'B, 30C, 30'C, 30D, 30'D, 30E, 30'E) towards a centre of the spiral patterns (27A, 27'A, 27B, 27'B, 27C, 27'C, 27D, 27'D, 27E, 27'E, 27F, 27'F, 27"F), whereby the brush is arranged to face the outer periphery (30A, 30'A, 30B, 30'B, 30C, 30'C, 30D, 30'D, 30E, 30'E), while the robotic cleaning device follows the spiral patterns (27A, 27'A, 27B, 27'B, 27C, 27'C, 27D, 27'D, 27E, 27'E, 27F, 27'F, 27"F) characterized in that the processing unit comprises a decision module, whereby the processing unit or the decision module is configured to decide how to split up the cleaning pattern (26A, 26B, 26C, 26D, 26E, 26F) based on the positional data in a plurality of spiral patterns (27A, 27'A, 27B, 27'B, 27D, 27'D, 27E, 27'E, 27F, 27'F, 27"F), by checking how many double cleaning movements a certain cleaning pattern would cause and choose the most effective cleaning pattern (26A, 26B, 26C, 26D, 26E, 26F). - a main body (2A, 2B) - an opening arranged in a bottom side of the main body for removing debris from an area (28A, 28B, 28C, 28D, 28E, 28F) to be cleaned; - a brush arranged adjacent to the opening; - a propulsion system configured to move the robotic cleaning device across the area (28A, 28B, 28C, 28D, 28E, 28F); - a positioning system comprising an obstacle detecting device configured to detect obstacles and a processing unit, the obstacle detecting device being configured to record positional data;
An end effector, comprising: a first jaw comprising a fastener cartridge, wherein said fastener cartridge comprises: a cartridge body including a deck configured to support tissue; fastener cavities defined in said cartridge body; and fasteners removably positioned within said fastener cavities; and a second jaw comprising an anvil, wherein said anvil comprises: a distal end and a proximal end; a tissue supporting surface configured to support tissue; forming pockets configured to deform said fasteners; and first anvil projections and second anvil projections (5924") wherein said first and second anvil projections extend from said tissue supporting surface and are configured to control the flow of tissue relative to said tissue supporting surface and said deck, characterized in that: said second anvil projections (5924") are positioned distally with respect to said first anvil projections; and said first anvil projections have a different height to the second anvil projections (5924"). a first jaw comprising a fastener cartridge, wherein said fastener cartridge comprises: a cartridge body including a deck configured to support tissue; fastener cavities defined in said cartridge body; and fasteners removably positioned within said fastener cavities; and a cartridge body including a deck configured to support tissue; fastener cavities defined in said cartridge body; and fasteners removably positioned within said fastener cavities; and a second jaw comprising an anvil, wherein said anvil comprises: a distal end and a proximal end; a tissue supporting surface configured to support tissue; forming pockets configured to deform said fasteners; and first anvil projections and second anvil projections (5924") wherein said first and second anvil projections extend from said tissue supporting surface and are configured to control the flow of tissue relative to said tissue supporting surface and said deck, characterized in that: a distal end and a proximal end; a tissue supporting surface configured to support tissue; forming pockets configured to deform said fasteners; and first anvil projections and second anvil projections (5924") wherein said first and second anvil projections extend from said tissue supporting surface and are configured to control the flow of tissue relative to said tissue supporting surface and said deck, characterized in that: said second anvil projections (5924") are positioned distally with respect to said first anvil projections; and said first anvil projections have a different height to the second anvil projections (5924").
A sports helmet comprising a closable air inlet for ventilation of the wearer's head; wherein the air inlet comprises: - blinds movable between an open and closed position; and - wherein, in the closed position, the blinds close the air inlet; - wherein the blinds are positioned such that, in the open position, air is guided into the helmet along the blinds; and characterized in that the helmet comprises an outside surface along which the air is guided when the blinds are in the closed position; and wherein, in the open position, the blinds are in a tilted position with respect to the outside surface of the helmet; and in that, in the open position, the blinds are in a translated position with respect to the outside surface of the helmet. - blinds movable between an open and closed position; and - wherein, in the closed position, the blinds close the air inlet; - wherein the blinds are positioned such that, in the open position, air is guided into the helmet along the blinds;