mhurhangee/patent-ind-claim-en huggingface dataset:
A wireless power transmitter device comprising: a driving coil configured to transmit power wirelessly; a magnetic coupler mutually inductively coupled with the driving coil ; the magnetic coupler comprises a plurality of coils arranged in a region opposite one side of the driving coil , the magnetic coupler further comprises variable capacitors installed on each coil of the magnetic coupler , respectively, wherein the plurality of coils are arranged on a same plane, a resonance frequency adjuster part configured to adjust a resonance frequency of the magnetic coupler , and a sensor part configured to detect a position of a wireless power receiver receiving the power wirelessly relative to the wireless power transmitter device ; wherein the resonance frequency adjuster part is configured to adjust the resonant frequency of each coil of the magnetic coupler when there is an offset between the driving coil of the wireless power transmitter device and a driving coil of the wireless power receiver based on the detection of the sensor part when the driving coil of the wireless power transmitter device is misaligned and does not overlap with the driving coil of the wireless power receiver , to optimize the magnetic field distribution for overcoming the decrease in power transfer efficiency due to the offset, and the resonance frequency adjuster part is configured to adjust the resonance frequency by adjusting capacitances of the variable capacitors installed on each coil of the magnetic coupler according to the offset. a driving coil configured to transmit power wirelessly; a magnetic coupler mutually inductively coupled with the driving coil ; the magnetic coupler comprises a plurality of coils arranged in a region opposite one side of the driving coil , the magnetic coupler further comprises variable capacitors installed on each coil of the magnetic coupler , respectively, wherein the plurality of coils are arranged on a same plane, a resonance frequency adjuster part configured to adjust a resonance frequency of the magnetic coupler , and a sensor part configured to detect a position of a wireless power receiver receiving the power wirelessly relative to the wireless power transmitter device ; wherein the resonance frequency adjuster part is configured to adjust the resonant frequency of each coil of the magnetic coupler when there is an offset between the driving coil of the wireless power transmitter device and a driving coil of the wireless power receiver based on the detection of the sensor part when the driving coil of the wireless power transmitter device is misaligned and does not overlap with the driving coil of the wireless power receiver , to optimize the magnetic field distribution for overcoming the decrease in power transfer efficiency due to the offset, and the resonance frequency adjuster part is configured to adjust the resonance frequency by adjusting capacitances of the variable capacitors installed on each coil of the magnetic coupler according to the offset.
A non-aqueous electrolyte solution for a lithium secondary battery, the non-aqueous electrolyte solution comprising: a lithium salt, a non-aqueous solvent including a carbonate-based solvent and propyl propionate, and a compound represented by Formula 1: wherein, in Formula 1, R 1 and R 2 are each independently hydrogen or a substituted or unsubstituted alkyl group having 1 to 6 carbon atoms. a lithium salt, a non-aqueous solvent including a carbonate-based solvent and propyl propionate, and a compound represented by Formula 1: wherein, in Formula 1, R 1 and R 2 are each independently hydrogen or a substituted or unsubstituted alkyl group having 1 to 6 carbon atoms.
A vacuum pump in which a control apparatus is detachably arranged with respect to a base portion of a pump main body and which comprises a waterproof structure, wherein the waterproof structure includes: a connector portion which is arranged in a peripheral side portion of the base portion and which connects the base portion with the control apparatus via an electric cable; a wall portion which is protrusively provided around the connector portion so as to expand from the base portion to the control apparatus; and characterized in that the waterproof structure further comprises a wall portion cover formed so as to conform to outer shapes of the base portion and the control apparatus and which covers the wall portion. a connector portion which is arranged in a peripheral side portion of the base portion and which connects the base portion with the control apparatus via an electric cable; a wall portion which is protrusively provided around the connector portion so as to expand from the base portion to the control apparatus; and characterized in that the waterproof structure further comprises a wall portion cover formed so as to conform to outer shapes of the base portion and the control apparatus and which covers the wall portion.
Fill level measurement device comprising: a transmission branch for generating and emitting a transmission signal towards a filling material surface; a receiving branch for receiving and evaluating a received signal; wherein the fill level measurement device is configured to selectively assume an interfering signal detection mode for detecting whether the received signal comprises an interfering signal, and a fill level measurement mode for measuring the fill level; wherein the transmission signal has a lower intensity in the interfering signal detection mode than in the fill level measurement mode; wherein the fill level measurement device is configured to change the transmission and receiving channel when the fill level measurement device has detected an interfering signal in the interfering signal detection mode. a transmission branch for generating and emitting a transmission signal towards a filling material surface; a receiving branch for receiving and evaluating a received signal; wherein the fill level measurement device is configured to selectively assume an interfering signal detection mode for detecting whether the received signal comprises an interfering signal, and a fill level measurement mode for measuring the fill level; wherein the transmission signal has a lower intensity in the interfering signal detection mode than in the fill level measurement mode; wherein the fill level measurement device is configured to change the transmission and receiving channel when the fill level measurement device has detected an interfering signal in the interfering signal detection mode.
An information processing device comprising: a voice processing unit that detects, from a voice signal, statements of a plurality of participants of a conversation; an image processing unit that detects, from an image signal, states of the plurality of participants of the conversation; a determination unit that determines a state of the conversation on a basis of the statements of the plurality of participants and the states of the plurality of participants; and an image generation unit that generates a planar map image of a space used for the conversation, wherein the planar map image contains a participant display indicating each of the participants participating in the conversation, and the planar map image contains a conversation line connecting two corresponding participant displays on a basis of the conversation that has been detected. a voice processing unit that detects, from a voice signal, statements of a plurality of participants of a conversation; an image processing unit that detects, from an image signal, states of the plurality of participants of the conversation; a determination unit that determines a state of the conversation on a basis of the statements of the plurality of participants and the states of the plurality of participants; and an image generation unit that generates a planar map image of a space used for the conversation, wherein the planar map image contains a participant display indicating each of the participants participating in the conversation, and the planar map image contains a conversation line connecting two corresponding participant displays on a basis of the conversation that has been detected.
An oil leakage sensor for motors , especially for robot servomotors comprising: sensing part in a form of a capacitor mountable at a motor drainage hole in such a way that in case of oil leakage a chamber between electrodes of the capacitor Is penetrated by the leaking oil , and an electronic circuit for measuring capacitance of said capacitor, characterized in that the chamber is divided into a measuring chamber and a reference chamber, being separate chambers, whereby leaking oil and humidity may penetrate the measuring chamber, while the reference chamber may be penetrated by the humidity only. sensing part in a form of a capacitor mountable at a motor drainage hole in such a way that in case of oil leakage a chamber between electrodes of the capacitor Is penetrated by the leaking oil , and an electronic circuit for measuring capacitance of said capacitor, characterized in that the chamber is divided into a measuring chamber and a reference chamber, being separate chambers, whereby leaking oil and humidity may penetrate the measuring chamber, while the reference chamber may be penetrated by the humidity only.
A method of determining charge loss of a refrigeration system comprising: inputting a supply/return air temperature ( T SBAIR , T RBAIR ), ambient temperature (T amb ) , a box temperature (T box ) and a compressor speed ( rpm_comp ) into an electronic controller of the refrigeration system; the method characterised by : calculating a real-time air side temperature difference ( dT a ) across an evaporator based on the measured supply/return air temperature; calculating a first air side temperature difference (dT1) across the evaporator by applying an algorithm having a first T-Map representative of normal operating conditions; confirming a detection prerequisite is satisfied; calculating a second air side temperature difference (dT2) across the evaporator by applying the algorithm having a second T-Map representative of a loss of refrigerant charge; taking an action if the real-time air side temperature difference is less than the first air side temperature difference; and taking an action if the real-time air side temperature difference is less than the second air side temperature difference. inputting a supply/return air temperature ( T SBAIR , T RBAIR ), ambient temperature (T amb ) , a box temperature (T box ) and a compressor speed ( rpm_comp ) into an electronic controller of the refrigeration system; the method characterised by : calculating a real-time air side temperature difference ( dT a ) across an evaporator based on the measured supply/return air temperature; calculating a first air side temperature difference (dT1) across the evaporator by applying an algorithm having a first T-Map representative of normal operating conditions; confirming a detection prerequisite is satisfied; calculating a second air side temperature difference (dT2) across the evaporator by applying the algorithm having a second T-Map representative of a loss of refrigerant charge; taking an action if the real-time air side temperature difference is less than the first air side temperature difference; and taking an action if the real-time air side temperature difference is less than the second air side temperature difference. calculating a real-time air side temperature difference ( dT a ) across an evaporator based on the measured supply/return air temperature; calculating a first air side temperature difference (dT1) across the evaporator by applying an algorithm having a first T-Map representative of normal operating conditions; confirming a detection prerequisite is satisfied; calculating a second air side temperature difference (dT2) across the evaporator by applying the algorithm having a second T-Map representative of a loss of refrigerant charge; taking an action if the real-time air side temperature difference is less than the first air side temperature difference; and taking an action if the real-time air side temperature difference is less than the second air side temperature difference.
A turbine case cooling system comprising: • a turbine assembly having an inlet and an outlet and surrounded by a turbine casing , wherein the turbine assembly comprises two or three turbine stages in axial series; • an annular structure that is radially spaced from the turbine casing and comprises a downstream end ; • an annular duct that is spaced radially outwardly from the turbine casing and radially inwardly from the annular structure ; the duct is axially and circumferentially continuous; the annular duct comprises at least one manifold radially spaced from the turbine casing , the at least one manifold having impingement holes through its radially inner wall to selectively impingement cool at least part of the turbine casing ; the duct sealingly coupled to the turbine casing at a first end towards the inlet of the axially first turbine stage of the turbine assembly , and a second end of the duct extending axially to or beyond the downstream end of the annular structure and the outlet of the axially last of the turbine stages of the turbine assembly ; • wherein the annular structure is configured to define a flow zone with the annular duct ; and • wherein the second end of the duct and a radially outer surface of the turbine casing form a turbine case cooling nozzle through which all the impingement cooling air is expelled. • a turbine assembly having an inlet and an outlet and surrounded by a turbine casing , wherein the turbine assembly comprises two or three turbine stages in axial series; • an annular structure that is radially spaced from the turbine casing and comprises a downstream end ; • an annular duct that is spaced radially outwardly from the turbine casing and radially inwardly from the annular structure ; the duct is axially and circumferentially continuous; the annular duct comprises at least one manifold radially spaced from the turbine casing , the at least one manifold having impingement holes through its radially inner wall to selectively impingement cool at least part of the turbine casing ; the duct sealingly coupled to the turbine casing at a first end towards the inlet of the axially first turbine stage of the turbine assembly , and a second end of the duct extending axially to or beyond the downstream end of the annular structure and the outlet of the axially last of the turbine stages of the turbine assembly ; • wherein the annular structure is configured to define a flow zone with the annular duct ; and • wherein the second end of the duct and a radially outer surface of the turbine casing form a turbine case cooling nozzle through which all the impingement cooling air is expelled.
A high heat-resistant catalyst, comprising: noble metal particles ; first compounds which contact the noble metal particles and suppress movement of the noble metal particles ; and second compounds which envelop the noble metal particles and the first compounds , suppress the movement of the noble metal particles , and suppress coagulation of the first compounds following mutual contact of the first compounds , wherein the first compounds support the noble metal particles , and single piece or aggregate of the first compounds supporting the noble metal particles are included in a section partitioned by the second compounds , and a coefficient of linear thermal expansion of the second compounds is 1.2×10 -5 [K -1 ] or less, wherein a porosity of the second compounds , measured by the Archimedean method, is 30% or more. noble metal particles ; first compounds which contact the noble metal particles and suppress movement of the noble metal particles ; and second compounds which envelop the noble metal particles and the first compounds , suppress the movement of the noble metal particles , and suppress coagulation of the first compounds following mutual contact of the first compounds , wherein the first compounds support the noble metal particles , and single piece or aggregate of the first compounds supporting the noble metal particles are included in a section partitioned by the second compounds , and a coefficient of linear thermal expansion of the second compounds is 1.2×10 -5 [K -1 ] or less, wherein a porosity of the second compounds , measured by the Archimedean method, is 30% or more.
Splice module for receiving a hose with a defined bending radius, whose excess length is stored in this splice module in the ordered state, in which the splice module comprises a splice tray and a pigtail wire excess length storage for the excess length of pigtail wires,
A method for making an adult incontinent device comprising the steps of: providing a chassis for the adult incontinent device, the chassis having a lateral attachment surface ; affixing a wing to the lateral attachment surface , the wing is a stretch laminate with at least one nonwoven layer and at least one elastic layer, the nonwoven layer and the elastic layer are bound together in face-to-face contact, the stretch laminate has at least one stretch zone with the elastic layer and at least one non-stretch zone without the elastic layer, a width of the elastic layer in the stretch zone is equal to or in a range of 25-90% of a width of the non-stretch zone, the stretch laminate has no overlap portions between the stretch zone and the non-stretch zone; and thereby forming the adult incontinent device . providing a chassis for the adult incontinent device, the chassis having a lateral attachment surface ; affixing a wing to the lateral attachment surface , the wing is a stretch laminate with at least one nonwoven layer and at least one elastic layer, the nonwoven layer and the elastic layer are bound together in face-to-face contact, the stretch laminate has at least one stretch zone with the elastic layer and at least one non-stretch zone without the elastic layer, a width of the elastic layer in the stretch zone is equal to or in a range of 25-90% of a width of the non-stretch zone, the stretch laminate has no overlap portions between the stretch zone and the non-stretch zone; and thereby forming the adult incontinent device .
A polycarbonate comprising a constituent unit represented by Formula [I] and constituent unit having a hydrocarbon group containing a cyclic structure: where R 1 and R 2 each independently denote a hydrocarbon group, and each R 3 independently denotes a hydrogen atom, a heteroatom-containing group, a halogen atom-containing group, a linear alkyl group having from 1 to 6 carbon atoms, a branched alkyl group having from 3 to 6 carbon atoms, or a group including an aryl group and having from 6 to 12 carbon atoms.
System for cooling an electric machine having a rotor having a rotary shaft and a stator fixed to an internal wall of a casing of the machine and surrounding said rotor, the casing comprising at least one bearing housing which receives an end of said rotary shaft by way of a rolling bearing , said system comprising: - a circulation circuit able to bring a cooling liquid into contact with active parts of the electric machine, - a main reservoir situated in a lower part of said casing, said main reservoir being able to hold the cooling liquid, - a pump connected to said main reservoir, said pump being able to inject said cooling liquid into said circulation circuit, said system being characterized in that the volume of liquid in said main reservoir reaches, in the shutdown state, a level of cooling liquid in the casing that interfaces with a lower part of said rotor, said circulation circuit leading to a secondary reservoir situated in an upper part of the casing, said system comprising control means for controlling the pump as a function of at least the temperature of the cooling liquid (Toil), said control means being designed to, for the one part, keep the pump in the shutdown state when the temperature of the cooling liquid is lower than a given threshold, such that said cooling liquid is propelled into the casing by splash lubrication of the rotor and accumulated in a receptacle attached to the surface of the casing on the side of said bearing housing, said receptacle being able to guide said liquid toward said bearing housing in order to lubricate and cool said rolling bearing, and to, for the other part, command the start-up of the pump as soon as the temperature of the cooling liquid reaches said threshold, such that the liquid is drawn in by the pump from the main reservoir into said circulation circuit and toward the secondary reservoir, lowering the level of cooling liquid in the casing. - a circulation circuit able to bring a cooling liquid into contact with active parts of the electric machine, - a main reservoir situated in a lower part of said casing, said main reservoir being able to hold the cooling liquid, - a pump connected to said main reservoir, said pump being able to inject said cooling liquid into said circulation circuit,
A method, comprising: disposing epoxy into an epoxy well in a photonic chip ; aligning an optical interface of the photonic chip to an optical fiber mounted on a fiber array unit, FAU, wherein the FAU comprises a first layer disposed on a transparent substrate , wherein a material of the transparent substrate is transparent to UV light while a material of the first layer blocks UV light, wherein the first layer comprises an optical window , and wherein the transparent substrate and the optical window are disposed over the epoxy well when the optical fiber is aligned to the optical interface; and curing the epoxy by passing UV electromagnetic radiation through the transparent substrate and the optical window to reach the epoxy well. disposing epoxy into an epoxy well in a photonic chip ; aligning an optical interface of the photonic chip to an optical fiber mounted on a fiber array unit, FAU, wherein the FAU comprises a first layer disposed on a transparent substrate , wherein a material of the transparent substrate is transparent to UV light while a material of the first layer blocks UV light, wherein the first layer comprises an optical window , and wherein the transparent substrate and the optical window are disposed over the epoxy well when the optical fiber is aligned to the optical interface; and curing the epoxy by passing UV electromagnetic radiation through the transparent substrate and the optical window to reach the epoxy well.
Feed pump for fluid media, in particular circulating pump for swimming pools or swimming baths, with a pump housing , an impeller which is arranged in the pump housing and is mounted non-rotatably on a pump shaft , a drive unit which can be connected to a drive motor , wherein the drive unit and the pump shaft are in magnetic operative connection with one another by means of inner and outer magnets which are separated from one another by a containment shell , and wherein the drive unit comprises an inner rotor on which the inner magnets are arranged and which can be connected non-rotatably to a motor shaft of the drive motor , and an outer rotor which is connected non-rotatably to the pump shaft by injection moulding onto the pump shaft, wherein the outer rotor supports the outer magnets and surrounds the inner rotor , wherein the inner rotor has additional weights which act as a starting brake, wherein a fluid circuit is provided, by means of which, for cooling and lubrication of the outer rotor and the pump shaft , a part of the conveying medium is carried from a pressure chamber of the feed pump to the outer rotor and the pump shaft , and wherein the pump shaft is supported rotatably by at least one plain bearing and the plain bearing is cooled and lubricated by the conveying medium carried in the fluid circuit.