mhurhangee/ep-ind-claims huggingface dataset:
A filter apparatus for removing solid contaminants from a cryogenic liquid which has been condensed into its liquid phase via a refrigeration process, and wherein the cryogenic liquid is to be injected into a compression cylinder of a split cycle internal combustion engine, and wherein the filter apparatus comprises: a liquid inlet; a liquid outlet wherein the liquid inlet is coupled to the liquid outlet via a filtering element (113, 115), the filtering element (113, 115) comprising a first portion and a second portion; a diverter (111, 112) arranged to direct the liquid through the first portion of the filtering element and, in response to a control signal, direct the liquid through the second portion of the filtering element; wherein the apparatus is configured to heat a respective one of the first and second portions of the filter while liquid is diverted away from said portion and the other one of the first and second portions of the filter is operated to filter liquid coolant in the liquid coolant flow path. a liquid inlet; a liquid outlet wherein the liquid inlet is coupled to the liquid outlet via a filtering element (113, 115), the filtering element (113, 115) comprising a first portion and a second portion; a diverter (111, 112) arranged to direct the liquid through the first portion of the filtering element and, in response to a control signal, direct the liquid through the second portion of the filtering element;
Assembly (22A, 22B) of a wing (24A, 24B) and of a supporting element (38A, 38B) of the wing (24A, 24B) for a motor vehicle, this vehicle comprising a chassis and a driving cab separate from the chassis and supported by said chassis, assembly (22A, 22B) wherein the supporting element (38A, 38B) is shaped so that it can be attached directly to the cab while supporting the wing (24A, 24B) and having the wing (24A, 24B) in its final assembly position with respect to the cab, position wherein the wing (24A, 24B) and the supporting element (38A, 38B) are superimposed at least partially so that the supporting element (38A, 38B) forms an inner lining of the wing (24A, 24B), i.e. the supporting element supports the wing over a relatively large area and is made of a composite material, for example of the thermosetting type.
A perpendicular speed reducer comprising: an input shaft; a reduction mechanism that reduces a speed of rotation of the input shaft; an output shaft; and a casing that accommodates the reduction mechanism, wherein the input shaft and the output shaft are perpendicular to each other, the casing includes a bearing hole formed on a first side surface to support the output shaft, and a fin provided along an axial direction of the input shaft toward the bearing hole, characterized in that the output shaft outputs the speed-reduced rotation to a first fan so as to drive the first fan, the casing further includes a groove portion provided along an axial direction of the output shaft on a second side surface adjacent to the first side surface, and the groove portion is formed such that airflow generated by the first fan flows along the groove portion. an input shaft; a reduction mechanism that reduces a speed of rotation of the input shaft; an output shaft; and a casing that accommodates the reduction mechanism, wherein the input shaft and the output shaft are perpendicular to each other, the casing includes a bearing hole formed on a first side surface to support the output shaft, and a fin provided along an axial direction of the input shaft toward the bearing hole, a bearing hole formed on a first side surface to support the output shaft, and a fin provided along an axial direction of the input shaft toward the bearing hole, characterized in that the output shaft outputs the speed-reduced rotation to a first fan so as to drive the first fan, the casing further includes a groove portion provided along an axial direction of the output shaft on a second side surface adjacent to the first side surface, and the groove portion is formed such that airflow generated by the first fan flows along the groove portion.
A wireless tamper device "WTD" comprising: a transmitter; a multi-layer probe having predetermined electrical characteristics, wherein the multi-layer probe is an antenna having an antenna length that is approximately equal to a fractional length of an operating frequency of the transmitter; a processing device in signal communication with the multi-layer probe; and a power supply in signal communication with the transmitter and processing device, wherein the processing device includes a processor, and a computer-readable medium "CRM" having encoded thereon computer-executable instructions to cause the processor to initiate a tamper state to untampered, detect a physical trigger on the multi-layer probe, and set the tamper state to tampered in response to detecting the physical trigger, wherein the physical trigger is a breaking of the multi-layer probe that reduces the antenna length, thus causing the antenna to operate at a shifted operating frequency. a transmitter; a multi-layer probe having predetermined electrical characteristics, wherein the multi-layer probe is an antenna having an antenna length that is approximately equal to a fractional length of an operating frequency of the transmitter; a processing device in signal communication with the multi-layer probe; and a power supply in signal communication with the transmitter and processing device, wherein the processing device includes a processor, and a computer-readable medium "CRM" having encoded thereon computer-executable instructions to cause the processor to initiate a tamper state to untampered, detect a physical trigger on the multi-layer probe, and set the tamper state to tampered in response to detecting the physical trigger, a processor, and a computer-readable medium "CRM" having encoded thereon computer-executable instructions to cause the processor to initiate a tamper state to untampered, detect a physical trigger on the multi-layer probe, and set the tamper state to tampered in response to detecting the physical trigger, initiate a tamper state to untampered, detect a physical trigger on the multi-layer probe, and set the tamper state to tampered in response to detecting the physical trigger, wherein the physical trigger is a breaking of the multi-layer probe that reduces the antenna length, thus causing the antenna to operate at a shifted operating frequency.
A method for separating impurities from process exhaust air, comprising the steps of: - passing a process exhaust air through a separating device; and - regenerating said separating device by passing a regeneration stream therethrough, characterized by the further steps of: - dividing said regeneration stream having passed through the separating unit of said separating device during regeneration into a first partial stream having an impurity concentration less than a first predetermined threshold, and a second partial stream having an impurity concentration equal to or greater than a second predetermined threshold, said second predetermined threshold being equal to or greater than said first predetermined threshold; - returning said first partial stream generated during regeneration into said process exhaust air upstream of said separating device; and - feeding said second partial stream generated during regeneration to a cleaning device, wherein a flow amount of said first partial stream generated during regeneration and/or a ratio of the flow amount of said first partial stream generated during regeneration to the flow amount of said second partial stream generated during regeneration are controlled variably. - passing a process exhaust air through a separating device; and - regenerating said separating device by passing a regeneration stream therethrough, - dividing said regeneration stream having passed through the separating unit of said separating device during regeneration into a first partial stream having an impurity concentration less than a first predetermined threshold, and a second partial stream having an impurity concentration equal to or greater than a second predetermined threshold, said second predetermined threshold being equal to or greater than said first predetermined threshold; - returning said first partial stream generated during regeneration into said process exhaust air upstream of said separating device; and - feeding said second partial stream generated during regeneration to a cleaning device,
Optoelectronic oscillator configured for side-mode suppression, comprising an optical section, an electric section, wherein the optoelectronic oscillator is made up of a closed loop comprising the optical and the electrical section, wherein the optical section comprises a modulated light source (1, 3) or a light source followed by a modulator, optical delay means, and a photo detector, wherein the electrical section comprises a main loop including a bandpass filter, an amplifier, a first adjustable phase shifter and a feedback-loop, characterized in that said feedback loop comprises means for signal coupling arranged directly in front of said band-pass filter, means for signal splitting arranged directly after said band-pass filter, and means for signal processing provided between said means for signal coupling and means for signal splitting, wherein said means for signal processing comprise an adjustable amplifier and a second adjustable phase shifter (15") and said feedback loop is connected in parallel to the band-pass filter in the electric section and wherein the amplification of a loop provided by the filter and the feedback loop is less than "1", and wherein a unit comprising the band-pass filter and said feedback loop forms a quality multiplier of the band-pass filter.
Housingless electric motor, in particular a brushless electric motor, comprising a rotor, a stator having a laminated stator core, and a motor mount, wherein the motor mount has fastening elements for attaching the electric motor in or on a household appliance, characterised in that the motor mount is mounted on the laminated stator core, the motor mount has at least one connection part (22, 23) and that the laminated stator core has at least one corresponding receptacle (24, 25) for the connection part (22, 23), the motor mount has a carrier plate with which the motor mount butts flat against the laminated stator core, and that the connection part (22, 23) is designed on the carrier plate.
Cylinder-head cover for a motor vehicle internal combustion engine, comprising a body and a liquid-coolant circulation duct formed in said body, said cylinder-head cover being characterized in that: - the liquid-coolant circulation duct comprises an opening intended to receive at least one immersion heater; - the cylinder-head cover comprises a cover plate closing the opening of the duct and comprising a fixing means for fixing with the immersion heater; and - the cover plate is made of electrically conducting plastics material and connected to earth. - the liquid-coolant circulation duct comprises an opening intended to receive at least one immersion heater; - the cylinder-head cover comprises a cover plate closing the opening of the duct and comprising a fixing means for fixing with the immersion heater; and - the cover plate is made of electrically conducting plastics material and connected to earth.
A turbomachine including a fan shaft driven by a turbine shaft via a device for reducing the speed of rotation, an uncoupling means interposed between the reduction device and the turbine shaft, which is able to uncouple the reduction device and the turbine shaft in response to the exceeding of a determined resistant torque (C D) called uncoupling torque exerted by the reduction device on the turbine shaft, the uncoupling means including at least one fuse connecting element which is interposed between the reduction device and the turbine shaft and which is able to be broken when it is subjected to the resistant uncoupling torque (C D) exerted by the speed reduction device on the turbine shaft, an input shaft of the reduction device including a tubular end segment which is coupled with a complementary tubular end segment of the turbine shaft, characterised in that said segments are coupled via at least one radial fuse connecting element able to be broken when it is subject to a shear stress corresponding to the resistant uncoupling torque (C D).
A drive system for a hybrid vehicle, comprising an internal combustion engine which has and can drive an internal combustion engine shaft, an automatic transmission which has a transmission input shaft arranged coaxially to the internal combustion engine shaft on the drive side, and a transmission output shaft arranged coaxially to the internal combustion engine shaft on the output side, a transmission clutch for coupling or decoupling the transmission input shaft and the transmission output shaft, a gyrating mass drive unit which is arranged axially between the internal combustion engine and the automatic transmission and has an intermediate shaft arranged coaxially to the internal combustion engine shaft, a first clutch for coupling or decoupling the internal combustion engine shaft and the intermediate shaft, a second clutch for coupling or decoupling the intermediate shaft and the transmission input shaft, and an electric machine which sits on the transmission input shaft and can drive the latter in a motor mode, characterized in that the gyrating mass drive unit is configured as a dual-mass flywheel, and the electric machine is a low-voltage electric machine having an operating voltage of less than 60 V.
A method performed by a wireless device for autonomously transmitting uplink control information, UCI, together with autonomous uplink, AUL, data transmission in a physical uplink shared channel, PUSCH, wherein the AUL transmission is an unscheduled transmission, and wherein the PUSCH comprises a subframe of 14 OFDM symbols numbered symbol 0 to symbol 13 and a shortened data transmission on the PUSCH is supported, the method comprising: mapping the UCI to time-frequency resources of the PUSCH, wherein the UCI and the AUL data transmission are multiplexed on a subframe such that the UCI is mapped starting from a lowest physical resource block, PRB, index but not on a first or last symbol of the subframe, according to one of: from symbol 1 to symbol 12 of a subframe; and from symbol 7 to symbol 12 of a subframe; and transmitting the PUSCH with the UCI on an uplink transmission. mapping the UCI to time-frequency resources of the PUSCH, wherein the UCI and the AUL data transmission are multiplexed on a subframe such that the UCI is mapped starting from a lowest physical resource block, PRB, index but not on a first or last symbol of the subframe, according to one of: from symbol 1 to symbol 12 of a subframe; and from symbol 7 to symbol 12 of a subframe; and from symbol 1 to symbol 12 of a subframe; and from symbol 7 to symbol 12 of a subframe; and transmitting the PUSCH with the UCI on an uplink transmission.
A photoelectric element comprising a pair of electrodes (2,5), an electron transporting layer and a hole transporting layer which are disposed between the electrodes (2,5), and an electrolyte solution, wherein the hole transporting layer comprises a first organic compound having a redox moiety capable of repeated oxidation and reduction, the electrolyte solution stabilizes a reduced state of the redox moiety, and characterized in that: the first organic compound and the electrolyte solution together form a first gel layer.
A method, for use with a portable electronic device, of providing power management notifications for the portable electronic device, the method comprising: monitoring a the current power level of a power supply in the portable electronic device; determining, by the portable electronic device, whether the current power level is one of less than and equal to a given threshold; wirelessly detecting, by the portable electronic device, whether a power supply charging device is in proximity to the portable electronic device, the power supply charging device being unattached to the portable electronic device, and where the wirelessly detecting comprises the portable electronic device communicating with the power supply charging device; and presenting a notification at the portable electronic device, in response to both: the current power level being determined to be one of less than and equal to the given threshold, and the power supply charging device being wirelessly detected in proximity to the portable electronic device. monitoring a the current power level of a power supply in the portable electronic device; determining, by the portable electronic device, whether the current power level is one of less than and equal to a given threshold; wirelessly detecting, by the portable electronic device, whether a power supply charging device is in proximity to the portable electronic device, the power supply charging device being unattached to the portable electronic device, and where the wirelessly detecting comprises the portable electronic device communicating with the power supply charging device; and presenting a notification at the portable electronic device, in response to both: the current power level being determined to be one of less than and equal to the given threshold, and the power supply charging device being wirelessly detected in proximity to the portable electronic device. the current power level being determined to be one of less than and equal to the given threshold, and the power supply charging device being wirelessly detected in proximity to the portable electronic device.
A computerized method for calculating a normalized activity score value to rank an identified document, the method comprising: identifying a stored document; determining a number of times the identified document was cited in a subject matter community of the identified document; determining a probability distribution that individual documents within the subject matter community are cited a variable number of times by other individual documents in the subject matter community, wherein the probability distribution is calculated according to a probability that an individual document is cited a number of times greater than or equal to the number of times the identified document was cited in the subject matter community; calculating a probability function by performing a regression on the probability distribution; calculating the activity score value according to an activity score function formulated as an inverse of the probability function such that the activity score function is defined by: Score x = k a ⋅ x − α + 1 p, wherein: Score(x) is the activity score value, k and p are constants, x is the number of documents citing the identified document, and a and α are learned from the regression on the probability distribution; weighting the activity score value by an age of the identified document; and storing in computer memory a ranking of the identified document based on the activity score value. identifying a stored document; determining a number of times the identified document was cited in a subject matter community of the identified document; determining a probability distribution that individual documents within the subject matter community are cited a variable number of times by other individual documents in the subject matter community, wherein the probability distribution is calculated according to a probability that an individual document is cited a number of times greater than or equal to the number of times the identified document was cited in the subject matter community;
A method for sending a packet, characterized by comprising: when a speed of sending the packet by an Optical Network Unit, ONU, exceeds a traffic speed limit of the ONU, caching the packet in a buffer of the ONU (Step 302) and evenly sending the packet according to the traffic speed limit (Step 303), wherein the traffic speed limit is determined by performing traffic shaping on the ONU, and a value of the buffer of the ONU is determined according to a bandwidth of a network where the ONU is located (Step 301), wherein the evenly sending the packet according to the traffic speed limit further comprises: adopting a token bucket algorithm to control the evenly sending of the packet; if there is a token in a token bucket, allowing to send the packet; and if there is no token in the token bucket, not allowing to send the packet. when a speed of sending the packet by an Optical Network Unit, ONU, exceeds a traffic speed limit of the ONU, caching the packet in a buffer of the ONU (Step 302) and evenly sending the packet according to the traffic speed limit (Step 303), wherein the traffic speed limit is determined by performing traffic shaping on the ONU, and a value of the buffer of the ONU is determined according to a bandwidth of a network where the ONU is located (Step 301), wherein the evenly sending the packet according to the traffic speed limit further comprises: adopting a token bucket algorithm to control the evenly sending of the packet; if there is a token in a token bucket, allowing to send the packet; and if there is no token in the token bucket, not allowing to send the packet.
Hitting-type cleaning system of a filtering member for vacuum cleaner, in particular an ash-cleaner, containing at least one filtering member, said cleaning system comprising at least one hitting means of said filtering member, said hitting means comprising at least one hitting portion being adapted to externally hit said filtering member in order to externally carry out an hitting and shaking action on said filtering member by means of at least one external impact of said hitting portion against said filtering member, characterised in that said hitting means comprises at least one fork-type beating element of said filtering member equipped with a double-blade mechanism.
A minimally invasive implantable device, the device comprising: at least one inner catheter; at least one drug delivery channel located within the inner catheter; and an outer catheter substantially surrounding the at least one inner catheter, wherein a substantially distal portion of the device further comprises at least one drug release site for delivery of at least one drug to an outside cardiac surface of a patient; and at least one electrically conductive element configured to provide defibrillation energy to the outside cardiac surface of the patient. at least one inner catheter; at least one drug delivery channel located within the inner catheter; and an outer catheter substantially surrounding the at least one inner catheter, wherein a substantially distal portion of the device further comprises at least one drug release site for delivery of at least one drug to an outside cardiac surface of a patient; and at least one electrically conductive element configured to provide defibrillation energy to the outside cardiac surface of the patient.