mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: a sliding sleeve comprising an outer housing and an insert, the outer housing and the insert having a plurality of signal inducing devices (130a-c) disposed therein; a memory logging tool comprising a tool processor and having a tool memory, a sensor, a clock, and a temperature sensor operatively coupled to the tool processor, wherein said sensor is configured to generate sensor signals in response to the plurality of signal inducing devices (130a-c) disposed in said outer housing and said insert, wherein said clock is configured to generate clock signals, wherein said tool processor is configured to cooperate with said sensor signals and said clock signals to form position signals indicative of relative axial positions of said plurality of said signal inducing devices (130a-c), and is configured to store said position signals within said tool memory, wherein said temperature sensor is configured to generate a temperature response stored within said tool memory; and a surface processor being configured to receive an input of said position signals and said temperature sensor response from said tool memory and being configured to process said position signals and said temperatures response, wherein in the processing, the surface processor is configured to determine from said position signals as a function of depth one indication of said condition of said sliding sleeve embodied as a valve and is configured to determine from diversion from a monotonic change in said temperature response as a function of depth another indication of said condition. a sliding sleeve comprising an outer housing and an insert, the outer housing and the insert having a plurality of signal inducing devices (130a-c) disposed therein; a memory logging tool comprising a tool processor and having a tool memory, a sensor, a clock, and a temperature sensor operatively coupled to the tool processor, wherein said sensor is configured to generate sensor signals in response to the plurality of signal inducing devices (130a-c) disposed in said outer housing and said insert, wherein said clock is configured to generate clock signals, wherein said tool processor is configured to cooperate with said sensor signals and said clock signals to form position signals indicative of relative axial positions of said plurality of said signal inducing devices (130a-c), and is configured to store said position signals within said tool memory, wherein said temperature sensor is configured to generate a temperature response stored within said tool memory; and a surface processor being configured to receive an input of said position signals and said temperature sensor response from said tool memory and being configured to process said position signals and said temperatures response, wherein in the processing, the surface processor is configured to determine from said position signals as a function of depth one indication of said condition of said sliding sleeve embodied as a valve and is configured to determine from diversion from a monotonic change in said temperature response as a function of depth another indication of said condition.
A safety device in a vehicle, the safety device comprising a housing having a first end and a second end, a piston arrangement comprising a piston and a piston rod, the piston arrangement being adapted to fit in the housing and to be moved from a retracted position to an extended position, a gas generator and a power connector being configured to power the gas generator; wherein a gas chamber is formed between an inner envelope wall of the housing and a pressure surface of the piston facing the first end of the housing; the piston rod has a supporting element projecting outside the housing; and the gas generator is situated in a position outside the housing supported by the supporting element and in communication with the gas chamber. a gas chamber is formed between an inner envelope wall of the housing and a pressure surface of the piston facing the first end of the housing; the piston rod has a supporting element projecting outside the housing; and the gas generator is situated in a position outside the housing supported by the supporting element and in communication with the gas chamber.
Method for detecting an occupancy state of a parking space, the parking space including a first and a second leaky waveguide (303, 305), including the following steps: - feeding a transmit signal comprising a predetermined transmit energy into the first leaky waveguide, so that at least a part of the transmit energy is radiated into an environment of the first leaky waveguide from the first leaky waveguide, wherein the part of radiated transmit energy is at least partly coupled into the second leaky waveguide, so that a receive signal based on the coupled-in transmit energy expands inside the second leaky waveguide, - measuring the receive signal and - determining the occupancy state based on the measured receive signal, wherein, in a known occupancy state, the transmit signal is fed-into and the receive signal is measured as reference signal, wherein, in an unknown occupancy state, the reference signal is compared to the measured receive signal and the occupancy state is determined depending on the comparison, wherein, in order to detect the occupancy state, several transmit signals with various temporal gaps are fed into the first leaky waveguide, and correspondingly several receive signals expanding within the second leaky waveguide are measured, wherein the occupancy state is determined based on the several measured receive signals. - feeding a transmit signal comprising a predetermined transmit energy into the first leaky waveguide, so that at least a part of the transmit energy is radiated into an environment of the first leaky waveguide from the first leaky waveguide, wherein the part of radiated transmit energy is at least partly coupled into the second leaky waveguide, so that a receive signal based on the coupled-in transmit energy expands inside the second leaky waveguide, - measuring the receive signal and - determining the occupancy state based on the measured receive signal,
A method of wireless communication, comprising: determining a difference between a previous power management maximum power reduction P-MPR and a current P-MPR, the previous P-MPR being the P-MPR when an indication is communicated that a power backoff is applied due to the previous P-MPR; and triggering a power headroom report PHR when the difference is greater than a threshold and the current P-MPR is greater than a sum of a maximum power reduction MPR and an additional MPR A-MPR. determining a difference between a previous power management maximum power reduction P-MPR and a current P-MPR, the previous P-MPR being the P-MPR when an indication is communicated that a power backoff is applied due to the previous P-MPR; and triggering a power headroom report PHR when the difference is greater than a threshold and the current P-MPR is greater than a sum of a maximum power reduction MPR and an additional MPR A-MPR.
Object tracking anti-jitter filtering method including, receiving, within an object tracking system, a plurality of raw location points for a tracking tag attached to a tracked object; storing the plurality of raw location points within a raw location points buffer; averaging the raw location points within an averaging window to generate a first averaged location point; and storing the averaged location point within an averaged location points buffer for use within the object tracking system and characterized in that a period of the averaging window is based upon a latest speed of the tracked object, and is between a minimum period and a maximum period; wherein for each generated average location point, the period is increased by a low period adjust value if the latest speed is less than a predefined low speed threshold, or wherein, for each generated average location point, the period is decreased by a high period adjust value if the latest speed is greater than a predefined high speed threshold.
A circuit arrangement for operating at least one light emitting diode (LED1, LED2), in particular for a motor vehicle, comprising a communications device (12, 14) which is connectable to a data bus and which is configured at least for receiving control signals from the data bus; a control device connected to the communications device (12, 14); a switching regulator which is configured for providing an operating current for operating the light emitting diode (LED1, LED2); and a control circuit (20, 30) connected to the control device (16, 32) for the clocked control of the switching regulator, wherein the control circuit (16, 32) is configured for the control of the control circuit (20, 30) on the basis of the control signals received by the communications device (12, 14); and wherein the communications device (12, 14), the control device (16, 32) and the control circuit (20, 30), are integrated in a common integrated circuit, characterized in that the switching regulator has a plurality of discrete components which comprise at least one inductor, at least one capacitor (C 1 - C3), at least one diode and at least one resistor (R1. R2); and in that the circuit arrangement (10, 110) has a substrate on which both the integrated circuit and the discrete components (L; C1 - C3; SD; R1, R2) of the switching regulator are arranged together.
A mobile communication system, comprising: a mobile platform having a plurality of interfaces to a respective plurality of mobile communication networks, and a router for selectively connecting one or more communications devices within the mobile platform to one or more of the interfaces, for communication over the respective mobile communication networks; and a central core common to each of the mobile communication networks, comprising a policy master arranged to determine resource requirements within the mobile communication networks in accordance with one or more defined policies and a resource manager arranged to allocate resources to the mobile communication networks in response to resource requests from the router and to resource requests from the policy master; wherein the resource manager is arranged to control (S8, S9) which of the interfaces are active on the mobile platform. a mobile platform having a plurality of interfaces to a respective plurality of mobile communication networks, and a router for selectively connecting one or more communications devices within the mobile platform to one or more of the interfaces, for communication over the respective mobile communication networks; and a central core common to each of the mobile communication networks, comprising a policy master arranged to determine resource requirements within the mobile communication networks in accordance with one or more defined policies and a resource manager arranged to allocate resources to the mobile communication networks in response to resource requests from the router and to resource requests from the policy master; wherein the resource manager is arranged to control (S8, S9) which of the interfaces are active on the mobile platform.
A water dispersible sheet comprising: a base paper sheet including a water dispersible fiber aggregate wherein the base paper sheet is impregnated with a chemical solution comprising diethylene glycol monobutyl ether, wherein the fiber aggregate includes 50% by mass to 70% by mass of NBKP, wherein the water dispersible sheet includes a longitudinal/transverse strength ratio of 0.9 to 1.2, and wherein emboss is formed on the water dispersible sheet, and wherein 5 g/m 2 to 30 g/m 2 of diethylene glycol monobutyl ether is added in the water dispersible sheet. a base paper sheet including a water dispersible fiber aggregate wherein the base paper sheet is impregnated with a chemical solution comprising diethylene glycol monobutyl ether, wherein the fiber aggregate includes 50% by mass to 70% by mass of NBKP, wherein the water dispersible sheet includes a longitudinal/transverse strength ratio of 0.9 to 1.2, and wherein emboss is formed on the water dispersible sheet, and wherein 5 g/m 2 to 30 g/m 2 of diethylene glycol monobutyl ether is added in the water dispersible sheet.
A method of inhibiting, reducing and/or retarding a biofilm formation on a surface of a substrate, the method comprising applying onto the surface a fluorinated hydrocarbon, said fluorinated hydrocarbon is perfluorotetracosane (CF 3 (CF 2) 22 CF 3), and said surface being selected from a glass surface, a porcelain surface, a ceramic surface, a polymeric surface, a metallic surface, and a surface which comprises silicon, an organosilicon, stainless steel, MICA, a polymer or any combination thereof.
An audio-intonation calibration method in which an audio signal emitted by a subject is reproduced to the auditory organs of said subject after real time processing, which method is characterized in that it comprises the following steps: - acquisition (E10, E50) of a model of audio signal to be imitated; - spectral analysis (E11, E51) of said model audio signal; - acquisition (E13, E53) of said audio signal imitated by the subject; - spectral analysis (E15, E55) of the imitated audio signal; - comparison (E16, E56) of the spectra of the model audio signal and the imitated audio signal; - correction (E18, E58) of the imitated audio signal as a function of the result of said comparison; and - reproduction (E22, E62) to the auditory organs of the subject of the corrected audio signal. - acquisition (E10, E50) of a model of audio signal to be imitated; - spectral analysis (E11, E51) of said model audio signal; - acquisition (E13, E53) of said audio signal imitated by the subject; - spectral analysis (E15, E55) of the imitated audio signal; - comparison (E16, E56) of the spectra of the model audio signal and the imitated audio signal; - correction (E18, E58) of the imitated audio signal as a function of the result of said comparison; and - reproduction (E22, E62) to the auditory organs of the subject of the corrected audio signal.
Tie bar withdrawing device for at least one tie bar (7a, 7b, 7c, 7d) of a casting machine having a fixed die plate with a first casting-mould half arranged thereon and having a movable die plate with a second casting-mould half arranged thereon, wherein the movable die plate can be moved on tie bars(7a, 7b, 7c, 7d) that are fastened releasably in the fixed die plate, and having a fastening device (10a, 10b, 10c, 10d) arranged on the movable die plate for releasable connection to a tie bar, characterized in that the tie bar withdrawing device has: - a further fastening device (15a, 15b) for releasable connection to a tie bar, said further fastening device (15a, 15b) being arranged on a rack (11a, 11b) which is located on that side of the movable die plate that is remote from the fixed die plate. - a further fastening device (15a, 15b) for releasable connection to a tie bar, said further fastening device (15a, 15b) being arranged on a rack (11a, 11b) which is located on that side of the movable die plate that is remote from the fixed die plate.
A method for manufacturing a bonded wafer by an ion implantation delamination method including at least the steps of, bonding a bond wafer having a micro bubble layer formed by gas ion implantation with a base wafer to be a supporting substrate, delaminating the bond wafer along the micro bubble layer as a boundary to form a thin film on the base wafer, the method comprising, in this order, a first step of cleaning the bonded wafer right after delaminating the bond wafer using ozone water; a second step of performing rapid thermal anneal process under a hydrogen containing atmosphere; a third step of forming a thermal oxide film on a surface layer of the bonded wafer by subjecting to heat treatment under an oxidizing gas atmosphere and removing the thermal oxide film; a fourth step of subjecting to heat treatment under a non-oxidizing gas atmosphere.
Filter device for polymer melts, with a filter (5, 6) and a cleaning device therefor, wherein the cleaning device has a detaching device for detaching filter residues from the filter (5, 6) and a discharge device for discharging the detached filter residues, wherein the cleaning device has a collection area on the filter (5, 6) as well as a discharge device for discharging the detached filter residues which is connected there by means of a feed line, and wherein the detaching device is formed as a backwashing device, characterized in that - the discharge device has, following the feed line, a controllable metering device which shuts off the feed line and receives, and discharges again at another location, detached filter residues from the feed line in portions in a manner that allows metering, - wherein the metering device has a controllably movable, in particular rotatably and/or displaceably arranged, metering element, - wherein the metering element has a solid region and one or more receiving pocket(s) for receiving and discharging a portion of detached filter residue. - the discharge device has, following the feed line, a controllable metering device which shuts off the feed line and receives, and discharges again at another location, detached filter residues from the feed line in portions in a manner that allows metering, - wherein the metering device has a controllably movable, in particular rotatably and/or displaceably arranged, metering element, - wherein the metering element has a solid region and one or more receiving pocket(s) for receiving and discharging a portion of detached filter residue.
A portable slot water-injection toilet, comprising: a toilet pool having a receiving cavity for receiving clean water, the toilet pool has a pool tapered from top to bottom, the bottom of the pool is a discharge outlet, the top of the pool is a tapered annular platform, the tapered annular platform consists of a wide part and a narrow part, above the tapered annular platform is a slot flush nozzle for shunting water currents, and the toilet pool is further provided with a clean water supply means that can supply the clean water in the receiving cavity to the slot flush nozzle, characterized in that, a first choke shunt cone and a second choke shunt cone that shunt water currents of a nozzle water inlet are formed on the slot flush nozzle, whereby the shunts implemented by the slot flush nozzle are evenly distributed on a surface of the pool under the guide of the tapered annular platform, whereby a part of a first shunt shunted by the first choke shunt cone flows from the wide part of the tapered annular platform to the narrow part of the tapered annular platform along a first transverse direction, and the other part flows down along a surface of the pool like a fan along a downward direction; a part of a second shunt shunted by the second choke shunt cone flows from the wide part of the tapered annular platform to the narrow part of the tapered annular platform along a second transverse direction, and the other part flows down along the surface of the pool like a fan along a downward direction; and the first transverse direction is opposite to the second transverse direction.
An oil in water type solid cosmetic, comprising: (a) 0.1 to 5% by mass of a hydrophobically modified polyether urethane represented by Formula below; (b) 0.05 to 1% by mass of a hydrophilic plate shaped powder having an average aspect ratio within the range from 20 to 100; (c) 5 to 25 % by mass of a hydrophobic powder; (d) an oil component; and (e) water; Formula: R 1 -{(O-R 2) k -OCONH-R 3 [-NHCOO- (R4-O) n -R 5] h} m wherein: R 1, R 2 and R 4 each independently represent an alkylene group having 2 to 4 carbon atoms; R 3 represents an alkylene group having 1 to 10 carbon atoms; R 5 is a linear, branched or secondary alkyl group having 12 to 24 carbon atoms; m is 2; h is 1; k is a number within a range from 100 to 300; and n is a number within a range from 10 to 100. (a) 0.1 to 5% by mass of a hydrophobically modified polyether urethane represented by Formula below; (b) 0.05 to 1% by mass of a hydrophilic plate shaped powder having an average aspect ratio within the range from 20 to 100; (c) 5 to 25 % by mass of a hydrophobic powder; (d) an oil component; and (e) water; Formula: R 1 -{(O-R 2) k -OCONH-R 3 [-NHCOO- (R4-O) n -R 5] h} m wherein: R 1, R 2 and R 4 each independently represent an alkylene group having 2 to 4 carbon atoms; R 3 represents an alkylene group having 1 to 10 carbon atoms; R 5 is a linear, branched or secondary alkyl group having 12 to 24 carbon atoms; m is 2; h is 1; k is a number within a range from 100 to 300; and n is a number within a range from 10 to 100. R 1, R 2 and R 4 each independently represent an alkylene group having 2 to 4 carbon atoms; R 3 represents an alkylene group having 1 to 10 carbon atoms; R 5 is a linear, branched or secondary alkyl group having 12 to 24 carbon atoms; m is 2; h is 1; k is a number within a range from 100 to 300; and n is a number within a range from 10 to 100.
A display device comprising: a substrate comprising a display area and a non-display area which is adjacent to the display area; a first power supply line which is in the non-display area and through which a first supply voltage is provided to the display area; and a driving voltage line which is in the display area and connects the first power supply line to the display area, characterized in that the first power supply line comprises: a first sub-power supply line (SPSL1) in the non-display area; and a second sub-power supply line (SPSL2) which is in the non-display area and faces the first sub-power supply line (SPSL1) along a thickness direction of the substrate, the second sub-power supply line (SPSL2) extends along an upper side and side surfaces of the first sub-power supply line (SPSL1) and contacting the first sub-power supply line (SPSL1), and the second sub-power supply line (SPSL2) and the driving voltage line are respective patterns of a same material layer on the substrate. a substrate comprising a display area and a non-display area which is adjacent to the display area; a first power supply line which is in the non-display area and through which a first supply voltage is provided to the display area; and a driving voltage line which is in the display area and connects the first power supply line to the display area, characterized in that the first power supply line comprises: a first sub-power supply line (SPSL1) in the non-display area; and a second sub-power supply line (SPSL2) which is in the non-display area and faces the first sub-power supply line (SPSL1) along a thickness direction of the substrate, the second sub-power supply line (SPSL2) extends along an upper side and side surfaces of the first sub-power supply line (SPSL1) and contacting the first sub-power supply line (SPSL1), and a first sub-power supply line (SPSL1) in the non-display area; and a second sub-power supply line (SPSL2) which is in the non-display area and faces the first sub-power supply line (SPSL1) along a thickness direction of the substrate, the second sub-power supply line (SPSL2) extends along an upper side and side surfaces of the first sub-power supply line (SPSL1) and contacting the first sub-power supply line (SPSL1), and the second sub-power supply line (SPSL2) and the driving voltage line are respective patterns of a same material layer on the substrate.
Switchable pulley wheel arrangement, comprising a driver which has a front hub, on which a pulley wheel is arranged rotatably, and, furthermore, a rear hub, on which a combined spring, a switching element and an adjusting mechanism are arranged, the combined spring which has at least one resilient limb being connected fixedly to the driver, whereas the switching element is arranged displaceably on the rear hub of the driver, the adjusting mechanism being arranged on the switching element, and the switching element and the adjusting mechanism being arranged rotatably with respect to one another, characterized in that the adjusting mechanism consists of a contact ring, on which a fastening ring is arranged, a rotating ring being arranged rotatably on the fastening ring, and, furthermore, of an axial ring which is arranged displaceably on the fastening ring.