mhurhangee/ep-ind-claims huggingface dataset:
A container, in particular a nestable container, having a bottom and side walls (4, 6, 8, 10) which extend from the bottom towards a circumferential container rim, in particular conically and/or widening in steps, wherein at least one of the side walls (4, 6, 8, 10) has a shock absorber on its outer side, which is arranged in the container height direction below the container rim and preferably at a distance therefrom, and projects from said outer side at least to such an extent that it is tangent to or intersects a plane spanned between an outer edge (16, 18, 20, 22) of the bottom and an outer edge (24, 26, 28, 30) of the container rim of the at least one side wall (4, 6, 8, 10), so that in the event of a tilting movement of the container about the associated outer edges (16, 18, 20, 22) of the bottom, the shock absorber hits a flat bottom before the container rim, characterized in that the shock absorber is hollow, in particular in the form of a hollow profile, or in that a clearance is formed between the shock absorber and the outer surface of the associated side wall (4, 6, 8, 10) shielded by the latter, and the shock absorber tapers in the direction away from the container interior, so that the shock absorber is configured and adapted to at least partially dissipate an impact acting laterally on the container while undergoing elastic and/or plastic deformation. wherein at least one of the side walls (4, 6, 8, 10) has a shock absorber on its outer side, which is arranged in the container height direction below the container rim and preferably at a distance therefrom, and projects from said outer side at least to such an extent that it is tangent to or intersects a plane spanned between an outer edge (16, 18, 20, 22) of the bottom and an outer edge (24, 26, 28, 30) of the container rim of the at least one side wall (4, 6, 8, 10), so that in the event of a tilting movement of the container about the associated outer edges (16, 18, 20, 22) of the bottom, the shock absorber hits a flat bottom before the container rim, characterized in that the shock absorber is hollow, in particular in the form of a hollow profile, or in that a clearance is formed between the shock absorber and the outer surface of the associated side wall (4, 6, 8, 10) shielded by the latter, and the shock absorber tapers in the direction away from the container interior, so that the shock absorber is configured and adapted to at least partially dissipate an impact acting laterally on the container while undergoing elastic and/or plastic deformation.
A method of space partitioning for motion planning by a system of a vehicle, the method comprising: analyzing a plurality of obstacle data to determine a plurality of obstacle locations in a configuration space of the vehicle; performing a partitioning of the configuration space to compute a skeletal partition representing a plurality of obstacle boundaries based on the obstacle locations; using the skeletal partition to place a plurality of samples by a sampling-based motion planner, wherein a weighted distribution is applied to randomly place higher percentage of samples closer to the skeletal partition; and outputting at least one obstacle-free path by the sampling-based motion planner based on the samples, characterized in that the configuration space is partitioned into three-dimensional cells defined as free space or obstacles, and a number of discrete cell locations are defined as the obstacle boundaries to be used for the skeletal partition. analyzing a plurality of obstacle data to determine a plurality of obstacle locations in a configuration space of the vehicle; performing a partitioning of the configuration space to compute a skeletal partition representing a plurality of obstacle boundaries based on the obstacle locations; using the skeletal partition to place a plurality of samples by a sampling-based motion planner, wherein a weighted distribution is applied to randomly place higher percentage of samples closer to the skeletal partition; and outputting at least one obstacle-free path by the sampling-based motion planner based on the samples, characterized in that the configuration space is partitioned into three-dimensional cells defined as free space or obstacles, and a number of discrete cell locations are defined as the obstacle boundaries to be used for the skeletal partition.
Use of an A-B block copolymer in an emulsion binder, wherein the A-B block copolymer is formed of a polymer block A and another polymer block B, at least 90 mass% of constituent monomer units of said A-B block copolymer having been derived from at least one (meth)acrylate-based monomer, wherein: the A-B block copolymer has a number average molecular weight of 5,000 to 100,000 and a polydispersity index (weight average molecular weight/number average molecular weight) of not greater than 1.7, the polymer block A has an acid value of 0 to 30 mgKOH/g and a glass transition point of not higher than 60°C, the polymer block B has an acid value of 75 to 250 mgKOH/g, and the A-B block copolymer has been neutralized with an alkaline material, and has been allowed to self-emulsify in an aqueous medium to form emulsion particles having a number average particle size of 30 to 300 nm, wherein the number average molecular weight, the weight average molecular weight, the glass transition point, the acid value, and the number average particle size are determined as disclosed in the description. the A-B block copolymer has a number average molecular weight of 5,000 to 100,000 and a polydispersity index (weight average molecular weight/number average molecular weight) of not greater than 1.7, the polymer block A has an acid value of 0 to 30 mgKOH/g and a glass transition point of not higher than 60°C, the polymer block B has an acid value of 75 to 250 mgKOH/g, and the A-B block copolymer has been neutralized with an alkaline material, and has been allowed to self-emulsify in an aqueous medium to form emulsion particles having a number average particle size of 30 to 300 nm, wherein the number average molecular weight, the weight average molecular weight, the glass transition point, the acid value, and the number average particle size are determined as disclosed in the description.
A storage device comprising: a non-volatile memory including a first memory region, MR1, including first memory cells having a first data storage capacity, a second memory region, MR2, including second memory cells having a second data storage capacity greater than the first data storage capacity, and a third memory region, MR3, including third memory cells having a third data storage capacity greater than the second data storage capacity; and a storage controller configured to receive a request, data, and storage time information, STI, associated with the data from a host, and program the data in a selected one of the first memory region, the second memory region and the third memory region in response to the request and on the basis of the storage time information, wherein the storage time information satisfies a reliability condition for the data after the data is programmed, wherein the storage controller is further configured to: program the data in the first memory region when a storage time for the data is greater than or equal to a first reference time, TR1; program the data in the second memory region when the storage time for the data is greater than or equal to a second reference time, TR2, and less than the first reference time; and program the data in the third memory region when the storage time for the data is less than the second reference time. a non-volatile memory including a first memory region, MR1, including first memory cells having a first data storage capacity, a second memory region, MR2, including second memory cells having a second data storage capacity greater than the first data storage capacity, and a third memory region, MR3, including third memory cells having a third data storage capacity greater than the second data storage capacity; and a storage controller configured to receive a request, data, and storage time information, STI, associated with the data from a host, and program the data in a selected one of the first memory region, the second memory region and the third memory region in response to the request and on the basis of the storage time information, wherein the storage time information satisfies a reliability condition for the data after the data is programmed, wherein the storage controller is further configured to: program the data in the first memory region when a storage time for the data is greater than or equal to a first reference time, TR1; program the data in the second memory region when the storage time for the data is greater than or equal to a second reference time, TR2, and less than the first reference time; and program the data in the third memory region when the storage time for the data is less than the second reference time. program the data in the first memory region when a storage time for the data is greater than or equal to a first reference time, TR1; program the data in the second memory region when the storage time for the data is greater than or equal to a second reference time, TR2, and less than the first reference time; and program the data in the third memory region when the storage time for the data is less than the second reference time.
A chimeric antigen receptor, wherein the CAR comprises: an extracellular binding domain that specifically binds to LYPD3; a transmembrane domain; and at least one cytoplasmic signaling domain. an extracellular binding domain that specifically binds to LYPD3; a transmembrane domain; and at least one cytoplasmic signaling domain.
Method for testing the functionality of an oxidation catalytic converter of an internal combustion engine, in particular of a diesel engine, of a motor vehicle, having the following steps, (a) checking whether the vehicle is at a standstill, (b) checking whether the internal combustion engine is at idle, (c) checking whether a temperature upstream and downstream of the oxidation catalytic converter lies within a predetermined range, (d) if the checks in all of steps (a) to (c) are each answered "yes", actively intervening in the engine management such that a predetermined temperature is set in the oxidation catalytic converter, (e) actively generating HC by means of a late post-injection of fuel, (f) measuring a lambda value upstream and downstream of the oxidation catalytic converter when the predetermined temperature in step (d) is reached and while HC is actively generated in step (e), (g) determining a difference between the lambda values upstream and downstream of the oxidation catalytic converter and (h) establishing that the oxidation catalytic converter is damaged if the difference from step (g) is smaller than a predetermined value. (a) checking whether the vehicle is at a standstill, (b) checking whether the internal combustion engine is at idle, (c) checking whether a temperature upstream and downstream of the oxidation catalytic converter lies within a predetermined range, (d) if the checks in all of steps (a) to (c) are each answered "yes", actively intervening in the engine management such that a predetermined temperature is set in the oxidation catalytic converter, (e) actively generating HC by means of a late post-injection of fuel, (f) measuring a lambda value upstream and downstream of the oxidation catalytic converter when the predetermined temperature in step (d) is reached and while HC is actively generated in step (e), (g) determining a difference between the lambda values upstream and downstream of the oxidation catalytic converter and (h) establishing that the oxidation catalytic converter is damaged if the difference from step (g) is smaller than a predetermined value.
A video display apparatus, the apparatus comprising: a video display; a first row of at least five audio transducers above the video display, the audio transducers of the first row being spaced farther apart at a periphery of the first row; and a second row of at least five audio transducers below the video display, the audio transducers of the second row being spaced farther apart at a periphery of the second row, wherein an audio transducer of the first row and an audio transducer of the second rows form a column to concertedly produce an audible signal, the apparatus being adapted to weight the audible signal between the audio transducers of the column to correspond to a visual cue position. a video display; a first row of at least five audio transducers above the video display, the audio transducers of the first row being spaced farther apart at a periphery of the first row; and a second row of at least five audio transducers below the video display, the audio transducers of the second row being spaced farther apart at a periphery of the second row,
A grill comprising: a lid, the lid having an inner wall and an outer wall and forming a substantially hollow plenum between the inner wall and outer wall; a grill body having a top, a bottom and a plurality of air intake slots on the bottom, the air intake slots having a key shape; an annular retaining member; a fuel grate; and an insert secured within the grill body, the insert having a top portion, a bottom portion and an intermediate portion, the top portion adapted to engage the top of the grill body, the intermediate portion adapted to support the annular retaining member and the bottom portion adapted to support the fuel grate. a lid, the lid having an inner wall and an outer wall and forming a substantially hollow plenum between the inner wall and outer wall; a grill body having a top, a bottom and a plurality of air intake slots on the bottom, the air intake slots having a key shape; an annular retaining member; a fuel grate; and an insert secured within the grill body, the insert having a top portion, a bottom portion and an intermediate portion, the top portion adapted to engage the top of the grill body, the intermediate portion adapted to support the annular retaining member and the bottom portion adapted to support the fuel grate.
A system comprising: a fuel cell consuming a fuel and outputting electrical power; one or more computing devices primarily powered by the fuel cell; and a fuel cell controller configured, in response to a determination that the electrical power output by the fuel cell is greater than an electrical power utilized by the one or more computing devices, to request the fuel cell to generate less power; the system characterised in that the fuel cell controller is further configured, during a time needed to change the power generated by the fuel cell, to perform, to thereby prevent a voltage of the electrical power produced by the fuel cell from surging, at least one of: increase operation of one or more cooling apparatus of the one or more computing devices, throttle up one or more processors of the one or more computing devices, request additional processing work to be performed by the one or more computing devices, and increase execution of low-priority tasks by the one or more computing devices. a fuel cell consuming a fuel and outputting electrical power; one or more computing devices primarily powered by the fuel cell; and a fuel cell controller configured, in response to a determination that the electrical power output by the fuel cell is greater than an electrical power utilized by the one or more computing devices, to request the fuel cell to generate less power; the system characterised in that the fuel cell controller is further configured, during a time needed to change the power generated by the fuel cell, to perform, to thereby prevent a voltage of the electrical power produced by the fuel cell from surging, at least one of: increase operation of one or more cooling apparatus of the one or more computing devices, throttle up one or more processors of the one or more computing devices, request additional processing work to be performed by the one or more computing devices, and increase execution of low-priority tasks by the one or more computing devices.
A composite implant for treating bone fractures and/or fortifying and/or augmenting a bone comprising: a barrier, said barrier being configured to selectively pass water, and said barrier being degradable in the presence of water; a matrix material for disposition within said barrier, wherein said matrix material has a flowable state and a set state, and wherein said matrix material is degradable in the presence of water; and at least one reinforcing element for disposition within said barrier and integration with said matrix material, wherein said at least one reinforcing element is degradable in the presence of water, and further wherein, upon the degradation of said at least one reinforcing element in the presence of water, provides an agent for modulating the degradation rate of said matrix material in the presence of water; wherein the matrix material includes a polyol having a hydroxyl number of 100 to 800. a barrier, said barrier being configured to selectively pass water, and said barrier being degradable in the presence of water; a matrix material for disposition within said barrier, wherein said matrix material has a flowable state and a set state, and wherein said matrix material is degradable in the presence of water; and at least one reinforcing element for disposition within said barrier and integration with said matrix material, wherein said at least one reinforcing element is degradable in the presence of water, and further wherein, upon the degradation of said at least one reinforcing element in the presence of water, provides an agent for modulating the degradation rate of said matrix material in the presence of water; wherein the matrix material includes a polyol having a hydroxyl number of 100 to 800.
Process for treating wastewater, comprising the following steps: - analyzing first parameters of a water flow entering a purification plant, wherein the first parameters are: water flow rate, and nitrogen concentration, - measuring the temperature of a biological reactor of the purification plant, - as a function of only said first parameters detected in the inflowing water and of only said measured temperature of the biological reactor, estimating a nitrogen concentration of a water flow exiting the purification plant, by means of a trained artificial neural network, wherein the inflowing water and the outflowing water are upstream and downstream, respectively, of the biological reactor, - analyzing a nitrogen concentration of the water flow exiting the purification plant, - comparing the estimated values of nitrogen concentration with the values of nitrogen concentration detected in the outflowing water, - based on such comparison, adjusting the modalities of treatment of the water in the purification plant, which comprises adjusting, in the biological reactor, one or more of: oxygenation, biological sludge amount, biological sludge recirculation, - treating the inflowing water in the purification plant; wherein the detections and/or the adjustments of the modalities of purification are made in real time. - analyzing first parameters of a water flow entering a purification plant, wherein the first parameters are: water flow rate, and nitrogen concentration, - measuring the temperature of a biological reactor of the purification plant, - as a function of only said first parameters detected in the inflowing water and of only said measured temperature of the biological reactor, estimating a nitrogen concentration of a water flow exiting the purification plant, by means of a trained artificial neural network, wherein the inflowing water and the outflowing water are upstream and downstream, respectively, of the biological reactor, - analyzing a nitrogen concentration of the water flow exiting the purification plant, - comparing the estimated values of nitrogen concentration with the values of nitrogen concentration detected in the outflowing water, - based on such comparison, adjusting the modalities of treatment of the water in the purification plant, which comprises adjusting, in the biological reactor, one or more of: oxygenation, biological sludge amount, biological sludge recirculation, - treating the inflowing water in the purification plant;
Wheel drive system, particularly for the ground circulation of an aircraft comprising: a motor unit borne by an unsuspended part of a landing gear strut of the aircraft and comprising an electric motor and reduction means, and a clutch device connecting the output shaft of the electric motor to the wheel via the reduction means, so that the clutch device comprises a dog-clutch mechanism (32, 34) comprising a drive part secured to the motor unit and a receiving part secured to the tyre of the wheel, and a system for the translational movement, along the axis of the axle crossbeam of the landing gear strut, of the drive part into an engaged position in which the drive part collaborates with the receiving part and a disengaged position in which the drive part is separated from the receiving part, and characterized in that the receiving part comprises a plurality of shock-absorbing pads projecting axially towards the drive part, secured to a lateral sidewall of the tyre and spaced apart in such a way as to leave a square-edged slot between two adjacent shock-absorbing pads. a motor unit borne by an unsuspended part of a landing gear strut of the aircraft and comprising an electric motor and reduction means, and a clutch device connecting the output shaft of the electric motor to the wheel via the reduction means, so that the clutch device comprises a dog-clutch mechanism (32, 34) comprising a drive part secured to the motor unit and a receiving part secured to the tyre of the wheel, and a system for the translational movement, along the axis of the axle crossbeam of the landing gear strut, of the drive part into an engaged position in which the drive part collaborates with the receiving part and a disengaged position in which the drive part is separated from the receiving part, and characterized in that the receiving part comprises a plurality of shock-absorbing pads projecting axially towards the drive part, secured to a lateral sidewall of the tyre and spaced apart in such a way as to leave a square-edged slot between two adjacent shock-absorbing pads.
A method for sensing a memory cell in a memory device, the method comprising: generating a changing count; biasing a control gate of the memory cell with a voltage generated in response to the changing count; determining that the memory cell has turned on in response to the voltage; and comparing a translation of the changing count to another count to determine a state of the memory cell, wherein the other count is a target count with respect to a verify operation. generating a changing count; biasing a control gate of the memory cell with a voltage generated in response to the changing count; determining that the memory cell has turned on in response to the voltage; and comparing a translation of the changing count to another count to determine a state of the memory cell, wherein the other count is a target count with respect to a verify operation.
A chassis for a mobility aid, which can be used for at least two of the possible drive types: front-wheel drive, rear-wheel drive or mid-wheel drive, consisting of at least two side walls (13, 15) and at least one connecting element (12, 14) connecting the two side walls (13, 15), having the following features: a) each side wall (13, 15) comprises multiple positioning aids, b) a bracket which is connectable to each respective side wall (13, 15) in at least two different arrangements, c) a drive unit which is connected to the bracket, wherein d) the arrangement of the bracket on the side wall (13, 15) determines the type of drive of the mobility aid. a) each side wall (13, 15) comprises multiple positioning aids, b) a bracket which is connectable to each respective side wall (13, 15) in at least two different arrangements, c) a drive unit which is connected to the bracket, wherein d) the arrangement of the bracket on the side wall (13, 15) determines the type of drive of the mobility aid.