mhurhangee/ep-ind-claims huggingface dataset:
A surge-protection circuit for a chip, comprising: a detection element, embedded on the chip and arranged between a first terminal and a second terminal, utilized to detect whether or not an abrupt voltage variation occurs due to a surge and to generate an enabling signal when the abrupt voltage variation occurs; and a protection element, embedded on the chip and coupled to the detection element, utilized to adjust and reduce the abrupt voltage variation by bypassing high energy generated by the surge after receiving the enabling signal; characterized in that detection element further comprises a differential pair composed of two P-type transistors, wherein sources of the two P-type transistors are coupled to the first terminal and the second terminal respectively, and drains of the two P-type transistors are coupled together, and gates of the two P-type transistors are biased to a pre-determined voltage, and when the abrupt voltage variation occurs a voltage of one of the sources exceeds the pre-determined voltage and the enabling signal is generated at the drains of the two P-type transistors. a detection element, embedded on the chip and arranged between a first terminal and a second terminal, utilized to detect whether or not an abrupt voltage variation occurs due to a surge and to generate an enabling signal when the abrupt voltage variation occurs; and a protection element, embedded on the chip and coupled to the detection element, utilized to adjust and reduce the abrupt voltage variation by bypassing high energy generated by the surge after receiving the enabling signal; characterized in that detection element further comprises a differential pair composed of two P-type transistors, wherein sources of the two P-type transistors are coupled to the first terminal and the second terminal respectively, and drains of the two P-type transistors are coupled together, and gates of the two P-type transistors are biased to a pre-determined voltage, and when the abrupt voltage variation occurs a voltage of one of the sources exceeds the pre-determined voltage and the enabling signal is generated at the drains of the two P-type transistors.
A pharmaceutical formulation, characterized in that it consists of the solid solution of aprepitant in the co-polymer of polyvinyl caprolactam with polyvinyl acetate and polyethylene glycol and the low viscosity grade HPMC, wherein the weight ratio between aprepitant, the co-polymer of polyvinyl caprolactam with polyvinyl acetate and polyethylene glycol and the HPMC is 17:67:16, filled into a hard capsule.
Disc brake for a utility vehicle, having a brake calliper which encompasses a brake disc and which is fastened by means of two attachment bearings to a vehicle-side brake carrier so as to be axially displaceable relative to the brake disc, wherein the attachment bearings have in each case one guide bar which is fixedly connected to the brake carrier and which is guided in a plain bearing of the brake calliper for the axial displacement of the latter, and at least one attachment bearing is equipped with a radially elastic damping bushing which surrounds the guide bar in regions, which damping bushing has grooves (7, 9, 9') laterally delimited by webs (6, 8, 10), characterized in that the damping bushing has a progressive damping characteristic in a radial loading direction, by means of which progressive damping characteristic the damping bushing becomes stiffer with increasing radial loading, for which purpose at least some of the webs (6, 8, 10) are thicker and/or wider than the other webs.
A method for detecting an approach of an operator, an arrangement being used, having a sensor analysis and control circuit, a reference electrode, which is coupled to the sensor analysis and control circuit, a sensor electrode, coupled to the sensor analysis and control circuit, of a capacitive sensor for detecting an approach of an object, the sensor analysis and control circuit being constructed for detecting the capacitance between sensor electrode and reference electrode, an adjustment electrode arranged between the sensor electrode and the reference electrode, which is coupled to the control circuit in order to adjust the potential of the shield electrode, having the steps: detecting measurement data relating to the capacitance of the sensor electrode with respect to the reference electrode with the aid of the sensor analysis and control circuit, characterized by the steps: analysing the measurement data and determining a value characteristic for the sensitivity of the sensor arrangement from a temporal sequence of the measurement data, increasing or decreasing the potential of the adjustment electrode in deviation from the potential of the sensor electrode and as a function of the characteristic value, in order to change the sensitivity of the sensor arrangement. detecting measurement data relating to the capacitance of the sensor electrode with respect to the reference electrode with the aid of the sensor analysis and control circuit, characterized by the steps: analysing the measurement data and determining a value characteristic for the sensitivity of the sensor arrangement from a temporal sequence of the measurement data, increasing or decreasing the potential of the adjustment electrode in deviation from the potential of the sensor electrode and as a function of the characteristic value, in order to change the sensitivity of the sensor arrangement. analysing the measurement data and determining a value characteristic for the sensitivity of the sensor arrangement from a temporal sequence of the measurement data, increasing or decreasing the potential of the adjustment electrode in deviation from the potential of the sensor electrode and as a function of the characteristic value, in order to change the sensitivity of the sensor arrangement.
A lip and skin tissue balm composition comprising: (a) a first low-melt wax having a melting temperature of between 25°C and 37°C; (b) a second low-melt wax having a melting temperature of between 25°C and 37°C; (c) a high-melt wax having a melting temperature of greater than 50°C; (d) one or more oils; and (e) optionally a flavoring agent; wherein the high-melt wax is present in an amount of 18.6% to 27.0% by weight; the ratio of the combined first and second low-melt waxes to the high-melt wax is 1:1 to 2:1; and the ratio of the first and second low-melt waxes to the one or more oils is 2.5:1 to 11:1. (a) a first low-melt wax having a melting temperature of between 25°C and 37°C; (b) a second low-melt wax having a melting temperature of between 25°C and 37°C; (c) a high-melt wax having a melting temperature of greater than 50°C; (d) one or more oils; and (e) optionally a flavoring agent; the high-melt wax is present in an amount of 18.6% to 27.0% by weight; the ratio of the combined first and second low-melt waxes to the high-melt wax is 1:1 to 2:1; and the ratio of the first and second low-melt waxes to the one or more oils is 2.5:1 to 11:1.
A data transmitter (100_1), comprising: means for generating transmission data packets, configured to split a first data packet into at least three transmission data packets (104_1-104_n), wherein each of the at least three transmission data packets (104_1-104_n) is shorter than the first data packet, the means for generating data packets being configured to channel-encode the at least three transmission data packets (104_1-104_n), wherein, caused by the used channel encoding, only a portion of the transmission data packets (104_1-104_n) is required for decoding the first data packet; means for transmitting data packets, configured to transmit the at least three transmission data packets (104_1-104_n) via a communications channel with a time gap; characterized in that the means for transmitting data packets is configured to discard a transmission data packet, waiting for transmission, of the at least three transmission data packets (104_1-104_n), so that the transmission data packet, waiting for transmission, is not transmitted if there is a further transmission data packet waiting for transmission at the time of transmitting the one transmission data packet; wherein the means for transmitting data packets is configured to transmit the further transmission data packet via the communications channel. means for generating transmission data packets, configured to split a first data packet into at least three transmission data packets (104_1-104_n), wherein each of the at least three transmission data packets (104_1-104_n) is shorter than the first data packet, the means for generating data packets being configured to channel-encode the at least three transmission data packets (104_1-104_n), wherein, caused by the used channel encoding, only a portion of the transmission data packets (104_1-104_n) is required for decoding the first data packet; means for transmitting data packets, configured to transmit the at least three transmission data packets (104_1-104_n) via a communications channel with a time gap; characterized in that the means for transmitting data packets is configured to discard a transmission data packet, waiting for transmission, of the at least three transmission data packets (104_1-104_n), so that the transmission data packet, waiting for transmission, is not transmitted if there is a further transmission data packet waiting for transmission at the time of transmitting the one transmission data packet; wherein the means for transmitting data packets is configured to transmit the further transmission data packet via the communications channel.
Method for computer-supported monitoring of an energy consumption of a means of transportation, in which - measurement data is received by least one measurement device which specifies the current energy consumption of the means of transportation, characterised in that - energy consumption data is determined from the measurement data with the aid of a processing unit which specifies an energy consumption of the means of transportation on a predetermined route, - comparison data, which specifies an energy consumption of means of transportation on previous journeys on the route is retrieved from the database, and - energy consumption information formed from a comparison of the energy consumption data with the comparison data is output with the output means to a driver of the means of transportation. - measurement data is received by least one measurement device which specifies the current energy consumption of the means of transportation, - energy consumption data is determined from the measurement data with the aid of a processing unit which specifies an energy consumption of the means of transportation on a predetermined route, - comparison data, which specifies an energy consumption of means of transportation on previous journeys on the route is retrieved from the database, and - energy consumption information formed from a comparison of the energy consumption data with the comparison data is output with the output means to a driver of the means of transportation.
An optical diode comprising: a circular polarisation splitter arranged to receive at least partially unpolarised light and output right-handed circular polarised light along a first optical path and left-handed circular polarised light along a second optical path; a first circular polariser arranged on the first optical path, wherein the first polariser is arranged to transmit right-handed circular polarised light and reflect left-handed circular polarised light; and a second circular polariser arranged on the second optical path, wherein the second polariser is arranged to transmit left-handed circular polarised light and reflect right-handed circular polarised light. a circular polarisation splitter arranged to receive at least partially unpolarised light and output right-handed circular polarised light along a first optical path and left-handed circular polarised light along a second optical path; a first circular polariser arranged on the first optical path, wherein the first polariser is arranged to transmit right-handed circular polarised light and reflect left-handed circular polarised light; and a second circular polariser arranged on the second optical path, wherein the second polariser is arranged to transmit left-handed circular polarised light and reflect right-handed circular polarised light.
Mixing module for a device for water treatment, comprising a base body having an inlet line for untreated water, a supply line for water treated by the device for water treatment, a first outlet line for service water of a first quality, a first mixing means to produce the service water of a first quality, and a second outlet line for service water of a second quality, the first mixing means connecting a first untreated water duct, which is flow-connected to the inlet line, to a first mixing duct, which is connected to the first outlet line, characterised in that the first untreated water duct opens into an untreated water annular space which encloses the inlet line, a first untreated water passage being formed in the wall of the inlet line and connecting the untreated water annular space to the interior of the inlet line, and in that the first mixing duct opens into a first service water annular space which encloses the first outlet line, a first service water passage being formed in the wall of the first outlet line and connecting the service water annular space to the interior of the first outlet line.
A method of bioremediation, the method comprising contacting a solution containing a contaminant with a microtube which comprises an electrospun shell, an electrospun coat over an internal surface of said shell and a cell or a particle coated with a lipid membrane attached to said microtube, wherein said cell, a portion of said cell or said particle coated with said lipid membrane is capable of degrading or assimilating said contaminant.
A method in a User Equipment, UE, for adapting an intra-frequency or inter-frequency measurement procedure, the method comprising: obtaining information about downlink reference signal, DL RS, configurations of cells of a carrier frequency, which information indicates: - whether or not the DL RSs transmitted in non-serving cells on the carrier frequency use the same configuration, of either a first or a second signal configuration, as the configuration used by DL RS transmitted in a serving cell of the UE on the carrier frequency, wherein the first signal configuration comprises the DL RS not being transmitted in every subframe, and wherein the second signal configuration comprises the DL RS being transmitted in every subframe and in every resource block over an entire channel bandwidth of a non-serving cell, and adapting the measurement procedure based on the obtained information about DL RS configurations by adapting a measurement sampling or an instance when the UE shall obtain samples for one or more types of radio measurements. obtaining information about downlink reference signal, DL RS, configurations of cells of a carrier frequency, which information indicates: - whether or not the DL RSs transmitted in non-serving cells on the carrier frequency use the same configuration, of either a first or a second signal configuration, as the configuration used by DL RS transmitted in a serving cell of the UE on the carrier frequency, - whether or not the DL RSs transmitted in non-serving cells on the carrier frequency use the same configuration, of either a first or a second signal configuration, as the configuration used by DL RS transmitted in a serving cell of the UE on the carrier frequency, wherein the first signal configuration comprises the DL RS not being transmitted in every subframe, and wherein the second signal configuration comprises the DL RS being transmitted in every subframe and in every resource block over an entire channel bandwidth of a non-serving cell, and adapting the measurement procedure based on the obtained information about DL RS configurations by adapting a measurement sampling or an instance when the UE shall obtain samples for one or more types of radio measurements.
A method of forming a waveguide part (302a-d) having a predetermined shape, the method comprising: dispensing a photocurable material into a space between a first mold portion and a second mold portion opposite the first mold portion; adjusting a relative separation between a surface of the first mold portion with respect to a surface of the second mold portion opposing the surface of the first mold portion to fill the space between the first and second mold portions (104a, 104b); irradiating the photocurable material in the space with radiation suitable for photocuring the photocurable material to form a cured waveguide film so that different portions of the cured waveguide film have different rigidity; separating the cured waveguide film from the first and second mold portions (104a, 104b); and singulating the waveguide part (302a-d) from the cured waveguide film, wherein the waveguide part (302a-d) corresponds to portions of the cured waveguide film having a higher rigidity than other portions of the cured waveguide film. dispensing a photocurable material into a space between a first mold portion and a second mold portion opposite the first mold portion; adjusting a relative separation between a surface of the first mold portion with respect to a surface of the second mold portion opposing the surface of the first mold portion to fill the space between the first and second mold portions (104a, 104b); irradiating the photocurable material in the space with radiation suitable for photocuring the photocurable material to form a cured waveguide film so that different portions of the cured waveguide film have different rigidity; separating the cured waveguide film from the first and second mold portions (104a, 104b); and singulating the waveguide part (302a-d) from the cured waveguide film, wherein the waveguide part (302a-d) corresponds to portions of the cured waveguide film having a higher rigidity than other portions of the cured waveguide film.
A food product dispenser, comprising: a fluid source; a fluid nozzle (2, 4); a flowable food component source (30, 30a, 30b, 30c); a food component nozzle (14, 14a, 14b, 14c); and a delivery device connecting the fluid source to the fluid nozzle (2, 4) and the component source to the component nozzle (14, 14a, 14b, 14c) for delivering a fluid and a food component from the respective source to the respective nozzle, wherein the delivery device and nozzles are configured such that the fluid and component are ejected from the fluid and component nozzles, respectively, in fluid and component streams (6a, 6b, 16, 16a, 16b, 16c), respectively, which intersect each other at an intersection location at which at least one of the streams is substantially in a state of free fall; wherein the delivery device and nozzles are configured for ejecting the streams in a configuration such that the streams mix by collision to produce a food product which is directed to a dispensing location, characterized in that the fluid nozzle comprises at least two fluid nozzles (2, 4), and the fluid stream comprises at least two fluid streams (6a, 6b) that intersect at the intersection location. wherein the nozzles comprise ejection orifices, with the ejection orifices of the component nozzles (14, 14a, 14b, 14c) being disposed closer than the ejection orifices of the fluid nozzles (2, 4) to a common central axis of the streams that extends through the intersection location wherein the central axis is substantially vertical and wherein the paths of the at least two fluid streams (6a, 6b) and the path of the at least one food component stream (16; 16a; 16b; 16c) are positioned in a single plane. a fluid source; a fluid nozzle (2, 4); a flowable food component source (30, 30a, 30b, 30c); a food component nozzle (14, 14a, 14b, 14c); and a delivery device connecting the fluid source to the fluid nozzle (2, 4) and the component source to the component nozzle (14, 14a, 14b, 14c) for delivering a fluid and a food component from the respective source to the respective nozzle, wherein the delivery device and nozzles are configured such that the fluid and component are ejected from the fluid and component nozzles, respectively, in fluid and component streams (6a, 6b, 16, 16a, 16b, 16c), respectively, which intersect each other at an intersection location at which at least one of the streams is substantially in a state of free fall;
A composite-based preformed board comprising a first fiber; a second fiber; a binder for binding the first fiber and the second fiber to each other; and a thermally expandable particle, wherein the first fiber and the second fiber are bound to each other by the binder to form an irregularly networked structure containing a pore therein, wherein the second fiber includes a second thermoplastic resin, wherein the binder includes a third thermoplastic resin, wherein a melting point of the second thermoplastic resin is higher than a melting point of the third thermoplastic resin, characterized in that the first fiber includes a first thermoplastic resin having a melting point higher than a melting point of the third thermoplastic resin, the first fiber being a drawn fiber having elongation of 300% to 600%, wherein a total content of the second fiber and the binder is in a range of 30 to 50 parts by weight with respect to 100 parts by weight of the first fiber, wherein the second fiber is a non-drawn fiber having elongation 0% or a drawn fiber having elongation smaller than 300%, wherein the thermally expandable particle is a thermally expandable fine particle positioned in the pore, wherein the thermally expandable fine particle has a core-shell structure composed of a shell made of a fourth thermoplastic resin and a core containing hydrocarbon gas, and wherein the thermally expandable fine particle has a volume at a maximum expansion temperature 40 to 200 times larger than a volume before expansion. wherein the first fiber and the second fiber are bound to each other by the binder to form an irregularly networked structure containing a pore therein, wherein the second fiber includes a second thermoplastic resin, wherein the binder includes a third thermoplastic resin, wherein a melting point of the second thermoplastic resin is higher than a melting point of the third thermoplastic resin, characterized in that the first fiber includes a first thermoplastic resin having a melting point higher than a melting point of the third thermoplastic resin, the first fiber being a drawn fiber having elongation of 300% to 600%, wherein a total content of the second fiber and the binder is in a range of 30 to 50 parts by weight with respect to 100 parts by weight of the first fiber, wherein the second fiber is a non-drawn fiber having elongation 0% or a drawn fiber having elongation smaller than 300%, wherein the thermally expandable particle is a thermally expandable fine particle positioned in the pore, wherein the thermally expandable fine particle has a core-shell structure composed of a shell made of a fourth thermoplastic resin and a core containing hydrocarbon gas, and wherein the thermally expandable fine particle has a volume at a maximum expansion temperature 40 to 200 times larger than a volume before expansion.