mhurhangee/ep-ind-claims huggingface dataset:
A method for monitoring the short-circuiting switching device of a three-phase motor for driving vehicles, which is fed from a DC voltage source via a controlled converter, wherein the short-circuiting switching device actuated by a control logic is connected to the inputs of the motor, and the motor currents and/or motor voltages are measured, characterised in that a predetermined test pattern, which is different from the voltage/current profiles during operation, is generated with the aid of the controlled converter during a test phase and is supplied to the motor, the short-circuiting switching device is actuated for the activation thereof, the current and/or voltage profile is detected during the test phase by opening and closing short-circuiting contacts and, on the basis of the current and/or voltage distribution in the individual motor phases, the correct opening/closing of the short-circuiting contacts is detected and evaluated, wherein switching patterns are applied to each of the motor phases and deviate so slightly from one another that defined, small voltage differences occur between the motor phases and the motor delivers practically no torque, and during the test pattern the currents and/or voltages across the motor phases are measured and the redistribution of the currents and/or voltages when the short-circuiting contacts are closed and opened is detected and evaluated.
A wireless communication method performed by a wireless terminal, the wireless communication method comprising: receiving a wake-up signal; determining a paging occasion, PO, based on a paging identification, ID, of the wireless terminal, wherein the wireless terminal has an extended UE identifier that is associated with a 5G serving temporary mobile subscriber identity, S-TMSI, configured for the wireless terminal, and wherein the extended UE identifier of the wireless terminal comprises 15 bits of the 5G S-TMSI configured for the wireless terminal; wherein the extended UE identifier is the paging identification and wherein the extended UE identifier is comprised in the wake-up signal; obtaining a monitoring bit in the wake-up signal; and receiving, from a wireless network node, a paging message at the determined PO, wherein a presence of the paging message is based on the monitoring bit. receiving a wake-up signal; determining a paging occasion, PO, based on a paging identification, ID, of the wireless terminal, wherein the wireless terminal has an extended UE identifier that is associated with a 5G serving temporary mobile subscriber identity, S-TMSI, configured for the wireless terminal, and wherein the extended UE identifier of the wireless terminal comprises 15 bits of the 5G S-TMSI configured for the wireless terminal; wherein the extended UE identifier is the paging identification and wherein the extended UE identifier is comprised in the wake-up signal; obtaining a monitoring bit in the wake-up signal; and receiving, from a wireless network node, a paging message at the determined PO, wherein a presence of the paging message is based on the monitoring bit.
An imaging apparatus for capturing an image of a target object, comprising: lens optical systems (La-Ld) arranged in an array, wherein each of the lens optical systems (La-Ld) includes a lens whose surface closest to the target object is shaped to be convex toward the target object; imaging regions (la, lb) which respectively face the lens optical systems (La-Ld) and output a photoelectrically converted signal corresponding to an amount of light transmitting the lens optical systems (La-Ld) and received by the imaging regions (la, lb); and a light-transmissive cover which covers an exposed portion of the lens of each of the lens optical systems (La-Ld) and a portion between the lens of one of the lens optical systems (La-Ld) and the lens of another one of the lens optical systems (La-Ld) adjacent to the one of the lens optical systems, the cover having a curved portion which is convex toward the target object, wherein an optical axis of each of the lens optical systems (La-Ld) is eccentric to a center axis of the cover, and characterised in that |f0| > 50 fx is satisfied, where fa represents a focal length of the cover and fx represents the focal length of each of the lens optical systems (La-Ld). lens optical systems (La-Ld) arranged in an array, wherein each of the lens optical systems (La-Ld) includes a lens whose surface closest to the target object is shaped to be convex toward the target object; imaging regions (la, lb) which respectively face the lens optical systems (La-Ld) and output a photoelectrically converted signal corresponding to an amount of light transmitting the lens optical systems (La-Ld) and received by the imaging regions (la, lb); and a light-transmissive cover which covers an exposed portion of the lens of each of the lens optical systems (La-Ld) and a portion between the lens of one of the lens optical systems (La-Ld) and the lens of another one of the lens optical systems (La-Ld) adjacent to the one of the lens optical systems, the cover having a curved portion which is convex toward the target object, wherein an optical axis of each of the lens optical systems (La-Ld) is eccentric to a center axis of the cover, and characterised in that |f0| > 50 fx is satisfied, where fa represents a focal length of the cover and fx represents the focal length of each of the lens optical systems (La-Ld).
A process for making a hot stamped coated steel sheet product, comprising the successive steps of: providing a pre-coated strip obtained by hot dip pre-coating a steel strip having a first side and a second side with aluminum or aluminum alloy, the pre-coating thickness on at least one of said first side and said second side of said strip having a thickness of from 20 to 33 μm at every location on at least one of said first and second sides of said strip; cutting said pre-coated steel strip to obtain a sheet; C) heating said aluminum- or aluminum alloy pre-coated steel sheet in a furnace preheated to a temperature and during a time defined by diagram ABCD of figure 7 if thickness of said sheet is greater than or equal to 0.7mm and less than or equal to 1.5mm, and by diagram EFGH of figure 7 if thickness of said sheet is greater than 1.5mm and less than or equal to 3mm, at a heating rate V c between 20 and 700°C comprised between 4 and 12°C/s, to obtain a heated blank; performing exit of said heated blank from said furnace transferring said heated blank to a die, wherein the elapsed time between said heated blank exits said furnace and a further stamping commences, is not more than 10 seconds, and stamping said heated blank in said die with a deformation quantity higher than 10%, to thereby obtain a hot stamped steel sheet product, wherein the heated blank is cooled at a mean rate between the exit of said furnace, down to 400°C, of at least 50°C/s providing a pre-coated strip obtained by hot dip pre-coating a steel strip having a first side and a second side with aluminum or aluminum alloy, the pre-coating thickness on at least one of said first side and said second side of said strip having a thickness of from 20 to 33 μm at every location on at least one of said first and second sides of said strip; cutting said pre-coated steel strip to obtain a sheet; C) heating said aluminum- or aluminum alloy pre-coated steel sheet in a furnace preheated to a temperature and during a time defined by diagram ABCD of figure 7 if thickness of said sheet is greater than or equal to 0.7mm and less than or equal to 1.5mm, and by diagram EFGH of figure 7 if thickness of said sheet is greater than 1.5mm and less than or equal to 3mm, at a heating rate V c between 20 and 700°C comprised between 4 and 12°C/s, to obtain a heated blank; performing exit of said heated blank from said furnace transferring said heated blank to a die, wherein the elapsed time between said heated blank exits said furnace and a further stamping commences, is not more than 10 seconds, and stamping said heated blank in said die with a deformation quantity higher than 10%, to thereby obtain a hot stamped steel sheet product, wherein the heated blank is cooled at a mean rate between the exit of said furnace, down to 400°C, of at least 50°C/s
Method for supplying the electrical power to a device for heating at least a part of the exhaust gases circulating in an exhaust line of a drive train of a motor vehicle, at the output of an internal combustion engine of this drive train, this motor vehicle also comprising an electric battery and an alternator, whereby, in a step a), said device for heating the exhaust gases is supplied with electrical power by the alternator of the motor vehicle, characterized in that the step a) is performed when the load of the internal combustion engine of the vehicle is less than a first predetermined load threshold value CS1, and, when the load of the internal combustion engine of the vehicle is greater than or equal to said first predetermined load threshold value CS1, in a step b) said device for heating the exhaust gases is supplied with power by the electric battery of the vehicle.
A method of improving resolution in separating labeled glycans in a sample by capillary electrophoresis analysis, wherein said separation takes place in a gel, wherein said gel comprises a polyamine having a structure of any of wherein R 1, R 2, and R 3 are independently selected from H and CH 3, wherein each R 1 and each R 2 are CH 3, wherein each of R 1 and R 2 are independently selected from H and CH 3, wherein each of R 1 -R 3 is independently selected from H and CH 3, wherein each of R 1 -R 4 can independently be H or CH 3, wherein each of R 1 -R 6 can independently be H or CH 3, wherein each of R 1 -R 6 is independently H or CH 3, or wherein each of R 1 -R 7 is independently H or CH 3.
A composition comprising a refrigerant that contains R32, R125, R143a and R134a, the composition comprising one member selected from refrigerants R 1 and R 4; wherein the total concentration of R32, R125, R143a and R134a is 100 mass%, the concentration of R32 is x mass%, and in a ternary composition diagram in which the total concentration of R125, R143a and R134a is (100-x) mass% the refrigerants R 1 and R 4 have the following compositions: R 1: x is 13.1-17.4 mass%, and the concentrations of R125/R143a/R134a (mass%) fall within a triangular region having the following points A, D and C as vertices: A (0.35x+51.892/0.0/100-R32-R143a-R125) D (-0.4309x 2 +0.0043x+130.4/0.2968x 2 +0.1331x-52.681/100-R32-R143a-R125) C (-2.6037x+90.59/0.0/100-R32-R125-R143a); and R 4: x is > 27.5 to 32.5 mass%, and the concentrations of R125/R143a/R134a (mass%) fall within a quadrangular region having the following points A, B, D and C as vertices A (0.36x+51.8/0.0/100-R32-R125-R143a) B (0.0/0.24x+35.4/100-R32-R125-R143a) D (0.0/-2.04x+73.7/100-R32-R125-R143a) C (-2.36x+85.3/0.0/100-R32-R125-R143a). R 1: x is 13.1-17.4 mass%, and the concentrations of R125/R143a/R134a (mass%) fall within a triangular region having the following points A, D and C as vertices: A (0.35x+51.892/0.0/100-R32-R143a-R125) D (-0.4309x 2 +0.0043x+130.4/0.2968x 2 +0.1331x-52.681/100-R32-R143a-R125) C (-2.6037x+90.59/0.0/100-R32-R125-R143a); and R 4: x is > 27.5 to 32.5 mass%, and the concentrations of R125/R143a/R134a (mass%) fall within a quadrangular region having the following points A, B, D and C as vertices A (0.36x+51.8/0.0/100-R32-R125-R143a) B (0.0/0.24x+35.4/100-R32-R125-R143a) D (0.0/-2.04x+73.7/100-R32-R125-R143a) C (-2.36x+85.3/0.0/100-R32-R125-R143a).
Process for producing flexible polyurethane foam, wherein the flexible polyurethane foam is obtained or obtainable by reaction of a composition containing or consisting of - a component A1 containing or consisting of at least one filled polyol, - a component A2 containing or consisting of isocyanate-reactive compounds having an OH number according to DIN 53240-1, method without catalyst, June 2013, of ≥ 20 to < 100 mg KOH/g and wherein the component A2 contains no filled polyol, - a component A3 containing water and/or at least one physical blowing agent, - a component A4 containing auxiliary and additive substances and - a component B containing or consisting of di-and/or polyisocyanates, wherein production is carried out at an index of 90 to 140, characterized in that the reaction is carried out in the presence of - 0.5 to 3.0 parts by weight, based on the sum of the components A1 and A2, of an organic urea derivative as component C which is obtainable or is obtained by reaction of urea with a difunctional amine, wherein the amine has a number-average molecular weight determined according to DIN 55672-1 (March 2016), part 1, with gel permeation chromatography using polystyrene standards and tetrahydrofuran as eluent of 200 to 1000 g/mol. - a component A1 containing or consisting of at least one filled polyol, - a component A2 containing or consisting of isocyanate-reactive compounds having an OH number according to DIN 53240-1, method without catalyst, June 2013, of ≥ 20 to < 100 mg KOH/g and wherein the component A2 contains no filled polyol, - a component A3 containing water and/or at least one physical blowing agent, - a component A4 containing auxiliary and additive substances and - a component B containing or consisting of di-and/or polyisocyanates, wherein production is carried out at an index of 90 to 140, characterized in that the reaction is carried out in the presence of - 0.5 to 3.0 parts by weight, based on the sum of the components A1 and A2, of an organic urea derivative as component C which is obtainable or is obtained by reaction of urea with a difunctional amine, wherein the amine has a number-average molecular weight determined according to DIN 55672-1 (March 2016), part 1, with gel permeation chromatography using polystyrene standards and tetrahydrofuran as eluent of 200 to 1000 g/mol. - 0.5 to 3.0 parts by weight, based on the sum of the components A1 and A2, of an organic urea derivative as component C which is obtainable or is obtained by reaction of urea with a difunctional amine, wherein the amine has a number-average molecular weight determined according to DIN 55672-1 (March 2016), part 1, with gel permeation chromatography using polystyrene standards and tetrahydrofuran as eluent of 200 to 1000 g/mol.
A method for collision warning light signaling of a motor vehicle equipped with an automatic braking system for emergency braking, from the rear thereof to following motor vehicles, in which an automatically generated braking process is carried out in a first stage and in a second stage, wherein hard braking is carried out in the first stage and emergency braking is carried out in the second stage, characterized in that an optimal warning start point is switched by a control signal, wherein the presence of the control signal signals the start of the first stage of autonomous braking, and in that this warning start point is transmitted at the same time by a light signal emitted to the driver of a following vehicle, wherein a switch-on signal and a switch-off signal are transmitted from a control unit to a light emitting unit at the rear of this vehicle which serves to emit the light signal, wherein the light signal emitted from the rear to the driver of a following vehicle reliably and effectively provides a warning of immediately imminent emergency braking, in that a collision warning light signal is switched on exactly at the time when the autonomous braking system switches independently into the generated status of warning time and hard braking, and in that the collision warning light signal is generated as an additional warning signal to the normal brake light, enabling an emergencycase braking to be initiated by the reflex of the driver of a following vehicle.
Washing tub unit for a washing machine comprising a) a washing tub housing a rotatable drum for receiving goods to be washed, b) wherein the washing tub has an inner tub wall facing the outside wall of the drum and having a tub bottom in the lowest region of the inner tub wall, the washing tub being composed of pre-formed tub parts (21, 22) being connected with each other, c) wherein a draining tub outlet is arranged within the tub bottom, d) wherein at least one directing element is arranged on the tub bottom adjacent to the tub outlet, e) the directing element having an impact wall protruding upwardly from the tub bottom towards the outside wall of the drum but keeping a distance from the outside wall of the drum and extending continuously to the edge of the tub outlet, characterised in that the draining tub outlet being formed in one of the pre-formed tub parts and the at least one directing element is formed in another of the pre-formed tub parts, such that washing liquid running down the inner tub wall and impacting onto the impact wall is directly guided towards and into the tub outlet. a) a washing tub housing a rotatable drum for receiving goods to be washed, b) wherein the washing tub has an inner tub wall facing the outside wall of the drum and having a tub bottom in the lowest region of the inner tub wall, the washing tub being composed of pre-formed tub parts (21, 22) being connected with each other, c) wherein a draining tub outlet is arranged within the tub bottom, d) wherein at least one directing element is arranged on the tub bottom adjacent to the tub outlet, e) the directing element having an impact wall protruding upwardly from the tub bottom towards the outside wall of the drum but keeping a distance from the outside wall of the drum and extending continuously to the edge of the tub outlet,
Honeycomb body arrangement having an electric heating device, wherein the electric heating device comprises at least one electrically insulated heating wire having a wire diameter, characterized in that the electrically insulated heating wire is fixed by means of a pin arrangement to a front side of a honeycomb body at a distance of at least five times and a maximum of fifteen times the wire diameter.
Anaerobic/aerobic liquid purification system (2,100,200) comprising a reactor, wherein the reactor comprises: - an anaerobic liquid purification subsystem (4,102,202)with an inlet (10,104,204) for receiving liquid to be treated, and an outlet (108,208) providing an anaerobic-treated liquid output; and - an aerobic liquid purification subsystem (34,110,210), integrated with the anaerobic liquid purification subsystem (4,102,202), with an inlet (112 from below, 212 from above) for receiving the anaerobic-treated liquid output and an outlet (114,214) for providing an anaerobic- and aerobic-treated liquid output, wherein the inlet (10,104,204) of the aerobic subsystem (34,110,210) is connected with connecting means (30A, 30B) to the outlet (108,208) of the anaerobic subsystem, characterized in that the anaerobic liquid purification subsystem (4,102,202) includes biomass carriers (32,120,220) for supporting anaerobic microorganisms, and wherein the liquid to be treated is introduced to the reactor in a down flow stream from the top of the anaerobic subsystem (4,102,202) on top of a fluidizing bed of the biomass carriers (32,120,220). - an anaerobic liquid purification subsystem (4,102,202)with an inlet (10,104,204) for receiving liquid to be treated, and an outlet (108,208) providing an anaerobic-treated liquid output; and - an aerobic liquid purification subsystem (34,110,210), integrated with the anaerobic liquid purification subsystem (4,102,202), with an inlet (112 from below, 212 from above) for receiving the anaerobic-treated liquid output and an outlet (114,214) for providing an anaerobic- and aerobic-treated liquid output, wherein the inlet (10,104,204) of the aerobic subsystem (34,110,210) is connected with connecting means (30A, 30B) to the outlet (108,208) of the anaerobic subsystem, characterized in that the anaerobic liquid purification subsystem (4,102,202) includes biomass carriers (32,120,220) for supporting anaerobic microorganisms, and wherein the liquid to be treated is introduced to the reactor in a down flow stream from the top of the anaerobic subsystem (4,102,202) on top of a fluidizing bed of the biomass carriers (32,120,220).
A method for receiving a discovery reference signal, DRS, the method being executed by a user equipment of a wireless communication system and comprising the steps of: receiving DRS configuration information through upper layer signaling from a serving cell of the user equipment; blind-detecting at least one DRS channel status information reference signal, DRS-CSI-RS, which is transmitted from a small cell of an unspecified number of small cells, based on the DRS configuration information received from the serving cell, wherein in the case that there is a legacy reference signal, RS, which is transmitted through a subframe from the small cell, and which is overlapped with the DRS-CSI-RS transmitted from the small cell in at least one resource element on the subframe; performing blind detection of the DRS-CSI-RS instead of blind-detection of the legacy RS; and transmitting and receiving a signal to and from the small cell as a response to the detected DRS-CSI-RS, wherein the DRS configuration information includes information on a candidate parameter set for blind detection of the DRS-CSI-RS, wherein the candidate parameter set includes one antenna port index that corresponds to a set of candidate frequency resource positions at which the DRS-CSI-RS is blindly detected by the UE, and wherein the wireless communication system comprises the serving cell and the unspecified number of small cells transmitting DRS. receiving DRS configuration information through upper layer signaling from a serving cell of the user equipment; blind-detecting at least one DRS channel status information reference signal, DRS-CSI-RS, which is transmitted from a small cell of an unspecified number of small cells, based on the DRS configuration information received from the serving cell, wherein in the case that there is a legacy reference signal, RS, which is transmitted through a subframe from the small cell, and which is overlapped with the DRS-CSI-RS transmitted from the small cell in at least one resource element on the subframe; performing blind detection of the DRS-CSI-RS instead of blind-detection of the legacy RS; and transmitting and receiving a signal to and from the small cell as a response to the detected DRS-CSI-RS, wherein the DRS configuration information includes information on a candidate parameter set for blind detection of the DRS-CSI-RS, wherein the candidate parameter set includes one antenna port index that corresponds to a set of candidate frequency resource positions at which the DRS-CSI-RS is blindly detected by the UE, and wherein the wireless communication system comprises the serving cell and the unspecified number of small cells transmitting DRS.