mhurhangee/ep-ind-claims huggingface dataset:
A multi-element ultrasonic atomizer, characterized in that it comprises: a power generator; a converter; an ultrasonic horn coupled to said converter; and at least two atomizing probes coupled to said ultrasonic horn, each atomizing probe comprising at least one liquid passage extending longitudinally along the atomizing probe and terminating at an atomizing tip at a distal end of the atomizing probe; wherein said converter converts an electrical oscillation supplied by said power generator to a mechanical oscillation and transfers the mechanical oscillation to said ultrasonic horn, which then uniformly transfers the mechanical oscillation to said at least two atomizing probes; wherein said at least two atomizing probes are made to vibrate at same frequency; and wherein a liquid is delivered to an atomizing surface through said at least one liquid passage and through an opening at said atomizing tip. a power generator; a converter; an ultrasonic horn coupled to said converter; and at least two atomizing probes coupled to said ultrasonic horn, each atomizing probe comprising at least one liquid passage extending longitudinally along the atomizing probe and terminating at an atomizing tip at a distal end of the atomizing probe;
A vehicle control method executed by a processor capable of executing a lane change of a subject vehicle, comprising: acquiring, from sensors equipped in the subjectvehicle, surrounding information of the subject vehicle; specifying, based on the surrounding information, an entry position indicating a position of an entry destination of the subject vehicle, the entry position being located on a second lane adjacent to a first lane in which the subject vehicle is traveling: when operating a blinker of the subject vehicle, decelerating the subject vehicle, and executing a lane change, determining whether or not there is a following vehicle which follows the subject vehicle in a predetermined area located behind the subject vehicle on the first lane characterized by when determining that there is the following vehicle, setting a preparation time longer than the preparation time when determining that there is not the following vehicle, the preparation time indicating a time from operating the blinker of the subject vehicle to decelerating the subject vehicle and starting the lane change of the subject vehicle; and controlling a travel position of the subject vehicle on the first lane within the preparation time. acquiring, from sensors equipped in the subjectvehicle, surrounding information of the subject vehicle; specifying, based on the surrounding information, an entry position indicating a position of an entry destination of the subject vehicle, the entry position being located on a second lane adjacent to a first lane in which the subject vehicle is traveling: when operating a blinker of the subject vehicle, decelerating the subject vehicle, and executing a lane change, determining whether or not there is a following vehicle which follows the subject vehicle in a predetermined area located behind the subject vehicle on the first lane characterized by when determining that there is the following vehicle, setting a preparation time longer than the preparation time when determining that there is not the following vehicle, the preparation time indicating a time from operating the blinker of the subject vehicle to decelerating the subject vehicle and starting the lane change of the subject vehicle; and controlling a travel position of the subject vehicle on the first lane within the preparation time. when operating a blinker of the subject vehicle, decelerating the subject vehicle, and executing a lane change, determining whether or not there is a following vehicle which follows the subject vehicle in a predetermined area located behind the subject vehicle on the first lane characterized by when determining that there is the following vehicle, setting a preparation time longer than the preparation time when determining that there is not the following vehicle, the preparation time indicating a time from operating the blinker of the subject vehicle to decelerating the subject vehicle and starting the lane change of the subject vehicle; and controlling a travel position of the subject vehicle on the first lane within the preparation time.
An exhaust system for a vehicular lean burn internal combustion engine, which system comprising: a conduit for carrying a flowing exhaust gas, a source of nitrogenous reductant, a synthetic aluminosilicate small pore zeolite catalyst, wherein the synthetic aluminosilicate zeolite has a silica-to-alumina ratio of from 8 to 150 and contains a maximum ring size of eight tetrahedral atoms and is the CHA Framework Type Code and contains at least one transition metal, which at least one transition metal consists of copper and which catalyst is coated on a monolith substrate disposed in a flow path of the exhaust gas and means for metering the nitrogenous reductant from the source of nitrogenous reductant into a flowing exhaust gas upstream of the synthetic aluminosilicate small pore zeolite catalyst, wherein an oxidation catalyst comprising at least one platinum group metal for oxidising nitrogen monoxide to nitrogen dioxide is located upstream of the means for metering the nitrogenous reductant into a flowing exhaust gas. a conduit for carrying a flowing exhaust gas, a source of nitrogenous reductant, a synthetic aluminosilicate small pore zeolite catalyst, wherein the synthetic aluminosilicate zeolite has a silica-to-alumina ratio of from 8 to 150 and contains a maximum ring size of eight tetrahedral atoms and is the CHA Framework Type Code and contains at least one transition metal, which at least one transition metal consists of copper and which catalyst is coated on a monolith substrate disposed in a flow path of the exhaust gas and means for metering the nitrogenous reductant from the source of nitrogenous reductant into a flowing exhaust gas upstream of the synthetic aluminosilicate small pore zeolite catalyst, wherein an oxidation catalyst comprising at least one platinum group metal for oxidising nitrogen monoxide to nitrogen dioxide is located upstream of the means for metering the nitrogenous reductant into a flowing exhaust gas.
A computer-implemented image classification method for processing an image input through each of a plurality of layers of a neural network to generate an output, wherein each of the plurality of layers of the neural network comprises a respective plurality of nodes and each of the nodes in an output layer corresponds to a respective object class, the method comprising, for at least one particular layer of the plurality of layers: receiving an activation vector as input for the particular layer; selecting one or more nodes in the particular layer using a hash code generated from the activation vector and a hash table that stores, for each of the nodes in the particular layer, a respective hash code of weight values of the node, the one or more nodes being selected by determining one or more hash codes in the hash table that are most similar to the hash code generated from the activation vector and selecting the nodes corresponding to the one or more most similar hash codes; and processing the activation vector using the selected nodes to generate an output for the particular layer. receiving an activation vector as input for the particular layer; selecting one or more nodes in the particular layer using a hash code generated from the activation vector and a hash table that stores, for each of the nodes in the particular layer, a respective hash code of weight values of the node, the one or more nodes being selected by determining one or more hash codes in the hash table that are most similar to the hash code generated from the activation vector and selecting the nodes corresponding to the one or more most similar hash codes; and processing the activation vector using the selected nodes to generate an output for the particular layer.
A display screen (100, 400), comprising a display layer, the display layer having a fingerprint recognition area (111, 401) and a peripheral area (112, 402) adjacent to the fingerprint recognition area, the fingerprint recognition area being provided with a plurality of first driving components (113, 403), the peripheral area being provided with a plurality of second driving components (114, 404), an interval (L1, L3) at which the plurality of first driving components are arranged being greater than an interval (L2, L4) at which the plurality of second driving components are arranged to increase light transmittance of the fingerprint recognition area, wherein the fingerprint recognition area allows light signals to pass through; wherein the display screen (100, 400) is an active-matrix OLED display screen or a passive-matrix OLED display screen; the first driving components are first thin-film transistors, and the second driving components are second thin-film transistors when the display screen (100, 400) is the active-matrix OLED display screen; the first driving components are first anode strips, and the second driving components are second anode strips when the display screen (100, 400) is the passive-matrix OLED display screen.
Method for high-frequency tuning a high-frequency plug-in connector comprising a printed circuit board, wherein the printed circuit board comprises contact points for high-frequency contacts and contact points for insulation piercing contacts, wherein in each case one contact point for the high-frequency contacts is connected to, in each case, one contact point for the insulation piercing contacts, wherein capacitive couplings which bring about near-end crosstalk (NEXT) occur between the high-frequency contacts, wherein at least one first conductor track which is connected only on one side to a contact point of an electrical contact is arranged on the printed circuit board and forms a capacitor (C 46) with at least one second conductor track which is arranged on and/or in the printed circuit board, characterized in that at least one frequency-dependent parameter of the arrangement is measured, the frequency-dependent parameter is compared with a setpoint parameter, and the conductor track with which contact is made on one side is partially removed or cut as a function of the difference, wherein near-end crosstalk (NEXT) is determined as frequency-dependent parameter, wherein in a first step only a portion of the estimated necessary shortening of the conductor track is performed, the near-end crosstalk (NEXT) is measured again, and the remaining conductor track length which is still to be removed or cut is determined and is removed or cut in a second step.
Control module for a lighting system, which lighting system comprises a base module with parallel electrodes and at least one light module coupled to said electrodes for receiving energy, said control module comprising: a controller circuit adapted to control at least one parameter of the at least one light module, and a holding member adapted to removably hold said control module in engagement with said electrodes of said lighting system, said control module being adapted to receive energy for its operation via said electrodes. a controller circuit adapted to control at least one parameter of the at least one light module, and a holding member adapted to removably hold said control module in engagement with said electrodes of said lighting system, said control module being adapted to receive energy for its operation via said electrodes.
A computer system that implements a computer program for processing database information for both transacting and reporting, said computer program comprising: a relational database management system component that stores said database information in a row format; and a column-oriented data processing component that stores said database information in a column format, wherein in response to a database update request, said relational database management system component updates said database information stored in said row format, said relational database management system component notifies said column-oriented data processing component of said database update request, and said column-oriented data processing component updates said database information stored in said column format, wherein in response to a query request, said column-oriented data processing component generates a query response based on said database information stored in said column format. a relational database management system component that stores said database information in a row format; and a column-oriented data processing component that stores said database information in a column format, wherein in response to a database update request, said relational database management system component updates said database information stored in said row format, said relational database management system component notifies said column-oriented data processing component of said database update request, and said column-oriented data processing component updates said database information stored in said column format, wherein in response to a query request, said column-oriented data processing component generates a query response based on said database information stored in said column format.
A battery frame for providing structural support for a battery pack (100a, 100b) for retaining rows of stacked battery cells (80a, 80b, 80c, 80d, 80e, 80f), the battery frame comprising: - two longitudinal beams (13a, 13b) and a plurality of crossbeams (10a, 10b, 10c, 10d, 10e, 10f, 10z) arranged between and connected to the longitudinal beams (13a, 13b); wherein - the plurality of crossbeams (10a, 10b, 10c, 10d, 10e, 10f, 10z) are arranged in parallel to each other and comprises two outer crossbeams (10a, 10z) and at least one inner crossbeam (10b, 10c, 10d, 10e, 10f), wherein the at least one inner crossbeam (10b, 10c, 10d, 10e, 10f) is arranged between the outer crossbeams (10a, 10z); wherein - a retaining section (15a, 15b, 15c, 15d, 15e, 15f) for retaining one row of stacked battery cells (80a, 80b, 80c, 80d, 80e, 80f) is provided between any neighboring pair of crossbeams (10a, 10b, 10c, 10d, 10e, 10f, 10z) so that rows of stacked battery cells (80a, 80b, 80c, 80d, 80e, 80f) and the at least one inner crossbeam (10b, 10c, 10d, 10e, 10f) are alternately stackable between the two outer crossbeams (10a, 10z); wherein - each of the crossbeams (10a, 10b, 10c, 10d, 10e, 10f, 10z) is connected to the two longitudinal beams (13a, 13b) by a plurality of fasteners extending into a longitudinal direction of the crossbeams (10a, 10b, 10c, 10d, 10e, 10f, 10z) through the longitudinal beams (13a, 13b) and into the crossbeams (10a, 10b, 10c, 10d, 10e, 10f, 10z). - two longitudinal beams (13a, 13b) and a plurality of crossbeams (10a, 10b, 10c, 10d, 10e, 10f, 10z) arranged between and connected to the longitudinal beams (13a, 13b); wherein - the plurality of crossbeams (10a, 10b, 10c, 10d, 10e, 10f, 10z) are arranged in parallel to each other and comprises two outer crossbeams (10a, 10z) and at least one inner crossbeam (10b, 10c, 10d, 10e, 10f), wherein the at least one inner crossbeam (10b, 10c, 10d, 10e, 10f) is arranged between the outer crossbeams (10a, 10z); wherein - a retaining section (15a, 15b, 15c, 15d, 15e, 15f) for retaining one row of stacked battery cells (80a, 80b, 80c, 80d, 80e, 80f) is provided between any neighboring pair of crossbeams (10a, 10b, 10c, 10d, 10e, 10f, 10z) so that rows of stacked battery cells (80a, 80b, 80c, 80d, 80e, 80f) and the at least one inner crossbeam (10b, 10c, 10d, 10e, 10f) are alternately stackable between the two outer crossbeams (10a, 10z); wherein - each of the crossbeams (10a, 10b, 10c, 10d, 10e, 10f, 10z) is connected to the two longitudinal beams (13a, 13b) by a plurality of fasteners extending into a longitudinal direction of the crossbeams (10a, 10b, 10c, 10d, 10e, 10f, 10z) through the longitudinal beams (13a, 13b) and into the crossbeams (10a, 10b, 10c, 10d, 10e, 10f, 10z).
A negative electrode for an electrochemical device which comprises: a current collector; and an electrode active material layer formed on at least one surface of the current collector, wherein the electrode active material layer comprises metal oxide-lithium titanium oxide (MO-LTO) composite particles which have a shape of secondary particles formed by aggregation of primary particles, wherein the primary particles have a core-shell structure comprising a core and a shell totally or at least partially covering the surface of the core, the core comprises primary particles of lithium titanium oxide, and the shell comprises a metal oxide, characterized in that the content of secondary particles in the MO-LTO composite particles is 80 wt% or more. a current collector; and an electrode active material layer formed on at least one surface of the current collector, wherein the electrode active material layer comprises metal oxide-lithium titanium oxide (MO-LTO) composite particles which have a shape of secondary particles formed by aggregation of primary particles, wherein the primary particles have a core-shell structure comprising a core and a shell totally or at least partially covering the surface of the core, the core comprises primary particles of lithium titanium oxide, and the shell comprises a metal oxide, characterized in that the content of secondary particles in the MO-LTO composite particles is 80 wt% or more.
A closure assembly for a surgical device comprising: a movement unit including a bar, the bar movable in a direction of a prescribed motion; a latch unit including a latch plate and a hook latch extending from the latch plate, the latch plate being movable between: a lockable state where the hook latch is engageable by the bar; and an unlockable state where the hook latch is unengageable by the bar; characterized in that the closure assembly further comprises an indicator mechanism that moves into alignment with the prescribed motion of the bar when the latch unit is in the unlockable state; the indicator mechanism being configured to indicate a position of the bar as the bar is moved in the direction of the prescribed motion, when the latch plate is in the unlockable state. a movement unit including a bar, the bar movable in a direction of a prescribed motion; a latch unit including a latch plate and a hook latch extending from the latch plate, the latch plate being movable between: a lockable state where the hook latch is engageable by the bar; and an unlockable state where the hook latch is unengageable by the bar; a lockable state where the hook latch is engageable by the bar; and an unlockable state where the hook latch is unengageable by the bar; characterized in that the closure assembly further comprises an indicator mechanism that moves into alignment with the prescribed motion of the bar when the latch unit is in the unlockable state; the indicator mechanism being configured to indicate a position of the bar as the bar is moved in the direction of the prescribed motion, when the latch plate is in the unlockable state.
A dual-input mechanical bypass linkage apparatus, comprising: a primary link; a secondary link spaced apart from the primary link; a first extension link extending between the primary link and the secondary link, the first extension link being coupled to the primary link, to the secondary link and to a first input link, the first input link to be coupled to a first actuator, the primary link being coupled to a second input link, the second input link to be coupled to a second actuator; and a second extension link spaced apart from the first extension link and extending between the primary link and the secondary link, the second extension link being coupled to the primary link, to the secondary link and to an output link, wherein the first extension link is rotatably coupled to the primary link, rotatably coupled to the secondary link, and rotatably coupled to the first input link, the primary link is rotatably coupled to the second input link, and the second extension link is rotatably coupled to the primary link, rotatably coupled to the secondary link, and rotatably coupled to the output link. a primary link; a secondary link spaced apart from the primary link; a first extension link extending between the primary link and the secondary link, the first extension link being coupled to the primary link, to the secondary link and to a first input link, the first input link to be coupled to a first actuator, the primary link being coupled to a second input link, the second input link to be coupled to a second actuator; and a second extension link spaced apart from the first extension link and extending between the primary link and the secondary link, the second extension link being coupled to the primary link, to the secondary link and to an output link, wherein the first extension link is rotatably coupled to the primary link, rotatably coupled to the secondary link, and rotatably coupled to the first input link, the primary link is rotatably coupled to the second input link, and the second extension link is rotatably coupled to the primary link, rotatably coupled to the secondary link, and rotatably coupled to the output link.
A method for assessing renal toxicity in an individual following administration of compound suspected of causing renal toxicity, wherein the renal toxicity is identified by measurement of a set of biomarkers in a urine sample from the individual and comparison of the measured biomarker amount with the corresponding amount in a healthy individual, wherein the biomarkers are selected from the group consisting of the biomarkers listed in TABLE 1 and include Calbindin d28 protein, and wherein the renal toxicity is collecting duct damage / regeneration or juxtaglomerular apparatus hypertrophy.
Polyethylene composition having the following features: 1) density of from 0.950 to 0.970 g/cm 3, determined according to ISO 1183 at 23°C; 2) MIE from 1 to 30 g/10 min.; 3) ratio MIF/MIE from 15 to 30, in particular from 20 to 29 or from 22 to 29, where MIF is the melt flow index at 190°C with a load of 21.60 kg, and MIE is the melt flow index at 190°C with a load of 2.16 kg, both determined according to ISO 1133; 4) ER values from 0.40 to 0.52. 1) density of from 0.950 to 0.970 g/cm 3, determined according to ISO 1183 at 23°C; 2) MIE from 1 to 30 g/10 min.; 3) ratio MIF/MIE from 15 to 30, in particular from 20 to 29 or from 22 to 29, where MIF is the melt flow index at 190°C with a load of 21.60 kg, and MIE is the melt flow index at 190°C with a load of 2.16 kg, both determined according to ISO 1133; 4) ER values from 0.40 to 0.52.