mhurhangee/ep-ind-claims huggingface dataset:
Hinge arrangement for doors, windows and the like, having a fixed frame and having a leaf, the frame and leaf being connected to one another by means of hinges so as to be pivotable about a hinge axis, the hinges each comprising a frame hinge part fastened to a fastening wall of the fixed frame and a leaf hinge part fastened to a fastening wall of the leaf, the fastening walls (19, 20) being the walls perpendicular to the frame and/or leaf plane, i.e. the walls of the frame and of the leaf which face one another when the leaf is closed, a projection (22, 36) which is encompassed by the frame hinge part and/or the leaf hinge part in a recess (21, 37) of the leaf and/or frame hinge part (18, 35) projecting from each of the fastening walls (19, 20) of the frame and/or of the leaf, which projection has a surface which is perpendicular with respect to the fastening wall, a threaded bore of the hinge part (18, 35) opening into the recess (21, 37), the frame hinge part and/or the leaf hinge part comprising a fastening leg (10, 11) which engages into a folding region formed between the frame and the leaf, and the recess (22, 37) being provided on the fastening leg (10, 11), the hinge arrangement comprising fastening means for fastening the frame hinge part and/or the leaf hinge part to the relevant fastening wall (19, 20), which means comprise at least one clamping screw (24, 38) which is provided on the frame hinge part and/or the leaf hinge part, can be screwed into the threaded bore, is designed as a stud bolt, and can be brought into operative connection with the projection (22, 36), characterized in that the fastening means further comprise cap screws which are screwed into the fixed frame and/or the leaf frame through the frame hinge parts and/or leaf hinge parts (18, 35) transversely with respect to the fastening walls (19, 20), and the clamping screw (24, 38), which is designed as a stud bolt, is supported, at the end thereof which is at the front in the screwing-in direction, on the surface of the projection (22, 36) which is perpendicular with respect to the fastening wall (19, 20) by engaging behind a bend of the projection (22, 36).
Process for treating a first solid biomass feedstock, said process comprising the following steps: a) a step of drying of said feedstock at a temperature of between 20 and 180°C for a period of between 5 and 180 minutes, b) a step of torrefaction of the dried feedstock resulting from step a) to produce at least one torrefied solid biomass effluent, and c) a step of co-grinding of the torrefied solid biomass effluent resulting from step b) in the presence of a second solid biomass feedstock to obtain a powder, wherein the second solid biomass feedstock entering co-grinding step c) has a moisture content of between 3.1% and 30% by mass. a) a step of drying of said feedstock at a temperature of between 20 and 180°C for a period of between 5 and 180 minutes, b) a step of torrefaction of the dried feedstock resulting from step a) to produce at least one torrefied solid biomass effluent, and c) a step of co-grinding of the torrefied solid biomass effluent resulting from step b) in the presence of a second solid biomass feedstock to obtain a powder, wherein the second solid biomass feedstock entering co-grinding step c) has a moisture content of between 3.1% and 30% by mass.
An annular barrier to be expanded in an annulus between a well tubular structure and an inside wall of a borehole downhole for providing zone isolation between a first zone and a second zone of the borehole, the annular barrier comprising: - a tubular part extending in a longitudinal direction for mounting as part of the well tubular structure, - an expandable sleeve surrounding the tubular part and defining a space being in fluid communication with an inside of the tubular part, - a first fluid passage (11, 61) for letting fluid into the space to expand the sleeve, and - a connection unit comprising: - a connection part slidably connected with the tubular part, a first end of the expandable sleeve being connected with the connection part, - a stationary part fixedly connected with the tubular part, and - an actuation mechanism adapted to induce an axial force on the first end of the expandable sleeve, whereby the connection part is displaced in the longitudinal direction towards a second end of the expandable sleeve connected with the tubular part, wherein the actuation mechanism comprises a pressure chamber at least partly defined between a face of the connection part and a face of the stationary part, and a second fluid passage for letting fluid into the pressure chamber of the actuation mechanism to push the connection part in the longitudinal direction, characterised in that the first fluid passage is provided in the connection part, thereby fluidly connecting the space defined by the expandable sleeve and the pressure chamber. - a tubular part extending in a longitudinal direction for mounting as part of the well tubular structure, - an expandable sleeve surrounding the tubular part and defining a space being in fluid communication with an inside of the tubular part, - a first fluid passage (11, 61) for letting fluid into the space to expand the sleeve, and - a connection unit comprising: - a connection part slidably connected with the tubular part, a first end of the expandable sleeve being connected with the connection part, - a stationary part fixedly connected with the tubular part, and - an actuation mechanism adapted to induce an axial force on the first end of the expandable sleeve, whereby the connection part is displaced in the longitudinal direction towards a second end of the expandable sleeve connected with the tubular part,
A computer-implemented method for task execution on a graphics processor, the method comprising: creating a data structure for grouping data resources; populating the data structure with two or more data resources (604, 606, 608, 610, 612, 614) by using an encoding object, wherein the data structure is ordered based on an index associated with each data resource (604, 606, 608, 610, 612, 614), and wherein the encoding object is configured to reorder the data structure based on one or more characteristics of the graphics processor by encoding the data structure into a graphics processing language; passing the encoded data structure to a first programming interface command, the first programming interface command configured to access the encoded data structure's data resources (624, 630, 626, 632, 628, 634); triggering execution of a first function on the graphics processer in response to passing the encoded data structure to the first programming interface command; passing the encoded data structure to a second programming interface command, the second programming interface command configured to access the encoded data structure's data resources (624, 630, 626, 632, 628, 634); and triggering execution of a second function on the graphics processer in response to passing the encoded data structure to the second programming interface command. creating a data structure for grouping data resources; populating the data structure with two or more data resources (604, 606, 608, 610, 612, 614) by using an encoding object, wherein the data structure is ordered based on an index associated with each data resource (604, 606, 608, 610, 612, 614), and wherein the encoding object is configured to reorder the data structure based on one or more characteristics of the graphics processor by encoding the data structure into a graphics processing language; passing the encoded data structure to a first programming interface command, the first programming interface command configured to access the encoded data structure's data resources (624, 630, 626, 632, 628, 634); triggering execution of a first function on the graphics processer in response to passing the encoded data structure to the first programming interface command; passing the encoded data structure to a second programming interface command, the second programming interface command configured to access the encoded data structure's data resources (624, 630, 626, 632, 628, 634); and triggering execution of a second function on the graphics processer in response to passing the encoded data structure to the second programming interface command.
A monitoring apparatus comprising: a condition determining section which is configured to determine a condition of one of a heart, lungs, and blood vessels based on: a concentration of carbon dioxide in an expired gas which is measured by using a first sensor; and an oxygen transport parameter or a metabolic parameter which is measured by using a second sensor (3, 4); and a displaying section which is configured to display in a form of a graph the condition of one of the heart, the lungs, and the blood vessels, the condition being classified based on the concentration of the carbon dioxide and the oxygen transport parameter or the metabolic parameter, characterized in that the displaying section displays the concentration of the carbon dioxide and the oxygen transport parameter or the metabolic parameter, on two-dimensional coordinates, one of the concentration of the carbon dioxide and the oxygen transport parameter or the metabolic parameter being indicated on an ordinate, the other being indicated on an abscissa. a condition determining section which is configured to determine a condition of one of a heart, lungs, and blood vessels based on: a concentration of carbon dioxide in an expired gas which is measured by using a first sensor; and an oxygen transport parameter or a metabolic parameter which is measured by using a second sensor (3, 4); and a displaying section which is configured to display in a form of a graph the condition of one of the heart, the lungs, and the blood vessels, the condition being classified based on the concentration of the carbon dioxide and the oxygen transport parameter or the metabolic parameter, characterized in that the displaying section displays the concentration of the carbon dioxide and the oxygen transport parameter or the metabolic parameter, on two-dimensional coordinates, one of the concentration of the carbon dioxide and the oxygen transport parameter or the metabolic parameter being indicated on an ordinate, the other being indicated on an abscissa.
A method for waking up a radio communications module, RCM, of a station (510, 610) with a wake-up receiver (512, 612), the method comprising: receiving, by the station (510, 610), a wake-up signal with the wake-up receiver (512, 612), the wake-up signal including an identifier of the station (510, 610); waking up, by the station (510, 610), the RCM from a sleeping mode; transmitting, by the station (510, 610), a second frame if a first frame including a message integrity code, MIC, generated by a cryptographic hash function with values in the first frame and a first cryptographic key is received within a specified time after waking up the RCM and if an integrity of the first frame is verified successfully; and placing, by the station (510, 610), the RCM into the sleeping mode and the wake-up receiver (512, 612) into an active mode if the first frame is not received within the specified time after waking up the RCM or if the first frame is received within the specified time after waking up the RCM but the integrity of the first frame is not verified successfully, wherein the method further comprises transmitting, by the station (510, 610), a station RCM wake up latency (530, 632) needed for waking up the RCM to an access point, AP (505, 605), serving the station (510, 610). receiving, by the station (510, 610), a wake-up signal with the wake-up receiver (512, 612), the wake-up signal including an identifier of the station (510, 610); waking up, by the station (510, 610), the RCM from a sleeping mode; transmitting, by the station (510, 610), a second frame if a first frame including a message integrity code, MIC, generated by a cryptographic hash function with values in the first frame and a first cryptographic key is received within a specified time after waking up the RCM and if an integrity of the first frame is verified successfully; and placing, by the station (510, 610), the RCM into the sleeping mode and the wake-up receiver (512, 612) into an active mode if the first frame is not received within the specified time after waking up the RCM or if the first frame is received within the specified time after waking up the RCM but the integrity of the first frame is not verified successfully, wherein the method further comprises transmitting, by the station (510, 610), a station RCM wake up latency (530, 632) needed for waking up the RCM to an access point, AP (505, 605), serving the station (510, 610).
Method for producing a blade for a turbomachine, the blade having blade-tip armoring on the blade tip thereof, and an erosion-protection layer at least on the airfoil thereof, characterized in that firstly, blade-tip armoring is applied to the blade tip, then a mask is arranged in the region of the blade-tip armoring which covers the blade-tip armoring, and subsequently the erosion-protection layer (13, 14) is deposited, the mask being removed again after the erosion-protection layer has been completed, the mask being arranged at a distance from the blade-tip armoring and simulating the shape of the blade-tip armoring.
Method for determining the result of an agglutination reaction comprising - a reaction step of allowing a sample to react with a reagent in a well, wherein a microplate is used having a plurality of wells arranged in a two-dimensional array, - a centrifugation step of rotating the microplate so that a bottom wall of the well will be arranged outwards with respect to a rotational axis, wherein in the centrifugation step an agglutinated sample material is separated from non-agglutinated sample material by means of a separation material such as a gel material or a bead matrix. - an imaging step of taking at least one image of the top side of the microplate and at least one image of the bottom side of the microplate, - a determination step of determining the sample in said well to be positive or negative with respect to an agglutination reaction, wherein the color intensity and/or the gray level of said well in the images of the top side and the bottom side of the microplate are compared. - a reaction step of allowing a sample to react with a reagent in a well, wherein a microplate is used having a plurality of wells arranged in a two-dimensional array, - a centrifugation step of rotating the microplate so that a bottom wall of the well will be arranged outwards with respect to a rotational axis, wherein in the centrifugation step an agglutinated sample material is separated from non-agglutinated sample material by means of a separation material such as a gel material or a bead matrix. - an imaging step of taking at least one image of the top side of the microplate and at least one image of the bottom side of the microplate, - a determination step of determining the sample in said well to be positive or negative with respect to an agglutination reaction, wherein the color intensity and/or the gray level of said well in the images of the top side and the bottom side of the microplate are compared.
Method for estimating a quantity of energy (E_tha) necessary for a thermal cabin conditioning system of a vehicle when driving a planned route, the method being implemented by an estimation module of a vehicle control device in charge of estimating the energy needs of the thermal conditioning system of the vehicle and comprising the calculation of a first quantity of energy (E_cv) of convergence towards a temperature setpoint and calculating a second quantity of energy (E_st) for maintaining the temperature of the passenger compartment at the temperature setpoint, the first quantity of energy (E_cv) and the second quantity of energy (E_st) being calculated respectively by means of a first and a second predetermined models, the method being characterized in that said models are predetermined as a function of the temperature setpoint, of a parameter representative of the outside air temperature and parameter representative of sunshine, the first and second models (11, 12) determining applicable power values (Pcv, Pst) for the calculation of the first and second quantities of energy (E_cv, E_st) respectively by predetermined power mapping stored in the memory of the control device.
A system, comprising: an unlogger configured to unlog logged data, which includes attenuation line integrals and clipping-induced bias, to produce unlogged clipped data, wherein the logged data was acquired by a computed tomography scanner; a mean estimator configured to estimate a mean value of the unlogged clipped data; a correction function that indicates a shift in a mean value between a true mean of unclipped data, which is logged to create the logged data, and the mean of the unlogged clipped data; a correction determiner configured to determine a correction to the clipping-induced bias based on the estimated mean value of the unlogged clipped data and based on the correction function; and an adder configured to add the correction to the logged data to produce corrected logged data. an unlogger configured to unlog logged data, which includes attenuation line integrals and clipping-induced bias, to produce unlogged clipped data, wherein the logged data was acquired by a computed tomography scanner; a mean estimator configured to estimate a mean value of the unlogged clipped data; a correction function that indicates a shift in a mean value between a true mean of unclipped data, which is logged to create the logged data, and the mean of the unlogged clipped data; a correction determiner configured to determine a correction to the clipping-induced bias based on the estimated mean value of the unlogged clipped data and based on the correction function; and an adder configured to add the correction to the logged data to produce corrected logged data.
A composition for scavenging hydrogen sulphide and mercaptans in hydrocarbon streams, said composition comprising an oxazolidine compound and an additive, said additive being a modified alkylphenol-aldehyde resin obtainable by a Mannich reaction of an alkylphenol-aldehyde condensation resin, - with at least one aldehyde and/or one ketone having 1 to 8 carbon atoms; and - at least one hydrocarbon compound having at least one alkylmonoamine or alkylpolyamine group having from 2 to 30 carbon atoms, - optionally with at least one alkylene oxide; said alkylphenol-aldehyde condensation resin being obtainable by condensation; - of at least one alkylphenol substituted by at least one linear or branched alkyl group having 1 to 30 carbon atoms; and - at least one aldehyde and/or one ketone having 1 to 8 carbon atoms, wherein the composition comprises from 19 to 99%wt of oxazolidine compound(s) and from 1 to 50%wt of said additive(s), based on the total weight of the composition, and wherein the modified alkylphenol-aldehyde resin is obtainable from p-nonylphenol, formaldehyde and at least one hydrocarbon compound having at least one alkylmonoamine or alkylpolyamine group having from 2 to 30 carbon atoms having at least one primary amine group, and wherein the oxazolidine compound replies to formula: wherein - n is an integer ranging from 1 to 6; - R1 and R2, identical or different, are selected from a hydrogen atom and a linear, branched or cyclic alkyl or alkenyl groups having from 1 to 6 carbon atoms. - with at least one aldehyde and/or one ketone having 1 to 8 carbon atoms; and - at least one hydrocarbon compound having at least one alkylmonoamine or alkylpolyamine group having from 2 to 30 carbon atoms, - optionally with at least one alkylene oxide; said alkylphenol-aldehyde condensation resin being obtainable by condensation; - of at least one alkylphenol substituted by at least one linear or branched alkyl group having 1 to 30 carbon atoms; and - at least one aldehyde and/or one ketone having 1 to 8 carbon atoms, - of at least one alkylphenol substituted by at least one linear or branched alkyl group having 1 to 30 carbon atoms; and - at least one aldehyde and/or one ketone having 1 to 8 carbon atoms, wherein the composition comprises from 19 to 99%wt of oxazolidine compound(s) and from 1 to 50%wt of said additive(s), based on the total weight of the composition, and wherein the modified alkylphenol-aldehyde resin is obtainable from p-nonylphenol, formaldehyde and at least one hydrocarbon compound having at least one alkylmonoamine or alkylpolyamine group having from 2 to 30 carbon atoms having at least one primary amine group, and wherein the oxazolidine compound replies to formula: wherein - n is an integer ranging from 1 to 6; - R1 and R2, identical or different, are selected from a hydrogen atom and a linear, branched or cyclic alkyl or alkenyl groups having from 1 to 6 carbon atoms. - n is an integer ranging from 1 to 6; - R1 and R2, identical or different, are selected from a hydrogen atom and a linear, branched or cyclic alkyl or alkenyl groups having from 1 to 6 carbon atoms.
A vision system for a semiconductor processing system, comprising: at least one robot adapted for use in a semiconductor processing system; a calibration wafer supported in the processing system; an end effector coupled to the robot; Characterised in that it comprises, a camera assembly positioned on the end effector of the robot, the camera assembly comprising: a camera selectively positioned by the robot; and a transmitter coupled to the camera; and a receiver for receiving images of the calibration wafer transmitted by the camera assembly. at least one robot adapted for use in a semiconductor processing system; a calibration wafer supported in the processing system; an end effector coupled to the robot; Characterised in that it comprises, a camera assembly positioned on the end effector of the robot, the camera assembly comprising: a camera selectively positioned by the robot; and a transmitter coupled to the camera; and a camera selectively positioned by the robot; and a transmitter coupled to the camera; and a receiver for receiving images of the calibration wafer transmitted by the camera assembly.
A primer-switch comprising a forward primer linked or conjugated covalently or non-covalently to a selector blocker, wherein the forward primer and selector blocker each comprise a sequence complementary to a sequence in the target region in the presence or absence of one or more nucleic acid variants, and wherein: (a) the 3' region of the forward primer that hybridizes to the target region overlaps with the 5' region of the selector blocker that hybridizes to the target region; or (b) the selector blocker comprises a sequence complementary to the target region in the absence or presence of the nucleic acid variant and wherein the forward primer comprises a sequence complementary to a region upstream of the target region, such that the selector blocker prevents extension of the forward primer when bound to the target region. (a) the 3' region of the forward primer that hybridizes to the target region overlaps with the 5' region of the selector blocker that hybridizes to the target region; or (b) the selector blocker comprises a sequence complementary to the target region in the absence or presence of the nucleic acid variant and wherein the forward primer comprises a sequence complementary to a region upstream of the target region,