mhurhangee/patent-ind-claim-en huggingface dataset:
Monitoring system of lubricant of a compressor of a refrigerant circuit for a compressible fluid where the compressor is equipped with an intake and a delivery ; said monitoring system comprising an on-off state detector of the compressor , a pressure sensor at the compressor delivery and a monitoring device connected to said on-off state detector and to the pressure sensor to provide the monitoring device respectively with data on operating or switch-off status of compressor and data flow along time on the pressure of compressible fluid at compressor delivery , characterized in that following the detection by the monitoring device of the compressor status switching from on to off, said monitoring device is configured to compare the course of the data flow along the time of the pressure values of the compressible fluid at the delivery , starting from the switching instant in the shutdown state, with a predetermined course memorized therein; in case of a discrepancy between the two courses exceeding a predetermined threshold, the monitoring device is configured to emit at least one alarm signal where the monitoring device is configured to compare the pressure courses by comparing the time needed for the pressure of the compressible fluid at delivery to stabilize or to reach a predetermined value with the corresponding times which constitute the predetermined stored course; or the monitoring device is configured to compare the pressure courses by comparing the values of the first and/or second derivatives at certain time intervals or their average values in one or more time intervals or integrals of the pressure course from the shutdown instant until the pressure of compressible fluid at delivery stabilizes or reaches a predetermined value with corresponding predetermined values of the first and/or second derivatives , the average values or the integrals of the pressure course.
A method for determining a paging carrier, characterized by comprising: determining (S101) a target carrier group based on a User Equipment (UE) identity, paging weights of a plurality of carrier groups and common paging parameters, wherein the common paging parameters correspond to the plurality of carrier groups, and each of the plurality of carrier groups is configured with a paging weight; and selecting (S102) the paging carrier from the target carrier group at least based on a current coverage level and/or measured channel quality. determining (S101) a target carrier group based on a User Equipment (UE) identity, paging weights of a plurality of carrier groups and common paging parameters, wherein the common paging parameters correspond to the plurality of carrier groups, and each of the plurality of carrier groups is configured with a paging weight; and selecting (S102) the paging carrier from the target carrier group at least based on a current coverage level and/or measured channel quality.
A water distribution and water treating architecture system comprising a light grey water tank , said light grey water tank being connected to a fresh water inlet , said light grey water tank further being connected to a heater so that both cold and hot water may be fed to a water treating and distributing unit from the light grey water tank , said water treating and distributing unit comprising a water treating unit , wherein the water distribution and water treating architecture system also comprises a user unit with a user outlet and a sensor unit tank , which sensor unit tank comprises at least one sensor directed to measuring water quality and sending information to a control unit, wherein the water distribution and water treating architecture system comprises a user water recirculation loop enabling recirculation of water from the sensor unit tank into the water treating and distributing unit and water treating unit and further to the user outlet , said sensor unit tank also being connected to a grey water outlet unit ; wherein the water distribution and water treating architecture system also comprises a water feeding recirculation loop enabling recirculation of water from the light grey water tank into the water treating and distributing unit and water treating unit and back to the light grey water tank , and wherein the water treating unit comprises a heater , characterized in that the water distribution and water treating architecture system also comprises an additional recirculation loop for recirculation of water from the user unit and to the light grey water tank . wherein the water distribution and water treating architecture system comprises a user water recirculation loop enabling recirculation of water from the sensor unit tank into the water treating and distributing unit and water treating unit and further to the user outlet , said sensor unit tank also being connected to a grey water outlet unit ; wherein the water distribution and water treating architecture system also comprises a water feeding recirculation loop enabling recirculation of water from the light grey water tank into the water treating and distributing unit and water treating unit and back to the light grey water tank , and wherein the water treating unit comprises a heater , characterized in that the water distribution and water treating architecture system also comprises an additional recirculation loop for recirculation of water from the user unit and to the light grey water tank .
A signal transmission method, comprising: generating a plurality of synchronization signal blocks, wherein each of the plurality of synchronization signal blocks comprises a first synchronization signal, a second synchronization signal, and a broadcast signal; and sending signals in the plurality of synchronization signal blocks, wherein at least one type of signal in each synchronization signal block and another type of signal in the same synchronization signal block are sent on non-adjacent symbols, characterized in that the sending signals in the plurality of synchronization signal blocks comprises: sending a plurality of first synchronization signals in the plurality of synchronization signal blocks inconsecutively in a first slot, and sending a plurality of second synchronization signals and a plurality of broadcast signals in the plurality of synchronization signal blocks alternately in a second slot and a third slot. generating a plurality of synchronization signal blocks, wherein each of the plurality of synchronization signal blocks comprises a first synchronization signal, a second synchronization signal, and a broadcast signal; and sending signals in the plurality of synchronization signal blocks, wherein at least one type of signal in each synchronization signal block and another type of signal in the same synchronization signal block are sent on non-adjacent symbols, characterized in that the sending signals in the plurality of synchronization signal blocks comprises: sending a plurality of first synchronization signals in the plurality of synchronization signal blocks inconsecutively in a first slot, and sending a plurality of second synchronization signals and a plurality of broadcast signals in the plurality of synchronization signal blocks alternately in a second slot and a third slot.
An air-conditioning outdoor unit including a compressor having a plurality of terminals each including a plurality of conductive pins , the air-conditioning outdoor unit , comprising: a plurality of lead wire groups provided for the respective terminals, the lead wire groups each including a plurality of lead wires connecting a control board to the plurality of conductive pins ; and a plurality of different end connectors provided for the respective lead wire groups , the end connectors each being attached to an end portion of the lead wire group adjacent to the plurality of conductive pins , characterized in that the lead wire groups are each connected by the end connector to the plurality of conductive pins and cut into two parts at a given point in a longitudinal direction, the two parts of the lead wire group are detachably coupled together at the given point by a pair of relay connectors , and a length from the control board to the given point and a length from the given point to the end connector differ from one lead wire group to another. a plurality of lead wire groups provided for the respective terminals, the lead wire groups each including a plurality of lead wires connecting a control board to the plurality of conductive pins ; and a plurality of different end connectors provided for the respective lead wire groups , the end connectors each being attached to an end portion of the lead wire group adjacent to the plurality of conductive pins , characterized in that the lead wire groups are each connected by the end connector to the plurality of conductive pins and cut into two parts at a given point in a longitudinal direction, the two parts of the lead wire group are detachably coupled together at the given point by a pair of relay connectors , and a length from the control board to the given point and a length from the given point to the end connector differ from one lead wire group to another.
A signal transfer device for an appliance, in particular for a camper, caravan, motor caravan or boat, with a transmitting and receiving unit , which comprises: - at least one receiving element , which is formed to receive reception data characterizing at least one state of at least a part of the appliance; and - at least one transmitting element , which is formed to establish at least one local wireless data link with at least one mobile terminal by radio technology and to wirelessly communicate transmission data characterizing the at least one state, which results from the reception data, to the mobile terminal via the data link, characterized in that the transmitting and receiving unit comprises at least one connecting device , via which the transmitting and receiving unit can be connected to a data bus of the appliance by means of at least one physical line , wherein the transmitting and receiving unit is formed as a module and formed: - to be arranged, in terms of signaling, between a first component inherently formed as a master of the data bus and at least one second component of the appliance inherently formed as a slave of the data bus via the connecting device into the data bus of the appliance; - to suggest to the master in terms of signaling that the transmitting and receiving unit is the slave; and - to suggest to the slave in terms of signaling that the transmitting and receiving unit is the master. - at least one receiving element , which is formed to receive reception data characterizing at least one state of at least a part of the appliance; and - at least one transmitting element , which is formed to establish at least one local wireless data link with at least one mobile terminal by radio technology and to wirelessly communicate transmission data characterizing the at least one state, which results from the reception data, to the mobile terminal via the data link, - to be arranged, in terms of signaling, between a first component inherently formed as a master of the data bus and at least one second component of the appliance inherently formed as a slave of the data bus via the connecting device into the data bus of the appliance; - to suggest to the master in terms of signaling that the transmitting and receiving unit is the slave; and - to suggest to the slave in terms of signaling that the transmitting and receiving unit is the master.
Household cooking appliance having a magnetron for generating microwaves, a muffle for receiving food to be cooked, a door for closing the muffle and a microwave trap , said microwave trap being arranged between a muffle flange of the muffle and a door base of the door , wherein the door base is arched, wherein the microwave trap is flexible in order to adapt its contour to the arched door base , wherein the microwave trap is fastened to the arched door base , wherein the muffle flange is arched so as to correspond to the door base , so that a uniform door gap (s) is provided between the muffle flange and the door base , characterised in that the door base is arched in a spherical manner and that the microwave trap is adapted to the arch of the door base , as a result of which the trapping effect is improved in corner regions of the door .
An analyte indicator comprising: a base ; a polymer unit polymerized onto or out of the base; and an analyte sensing element attached to the polymer unit or copolymerized with the polymer unit, wherein the analyte sensing element includes an indicator polymer chain attached or polymerized onto or out of the polymer unit and indicator molecules attached to the indicator polymer chain, characterized in that the base is porous and in that the polymer unit is a polyethylene glycol unit. a base ; a polymer unit polymerized onto or out of the base; and an analyte sensing element attached to the polymer unit or copolymerized with the polymer unit, wherein the analyte sensing element includes an indicator polymer chain attached or polymerized onto or out of the polymer unit and indicator molecules attached to the indicator polymer chain, characterized in that the base is porous and in that the polymer unit is a polyethylene glycol unit.
A method for processing a speech input (SE), having the steps: - receiving a speech input (SE) of a user; - preprocessing the speech input (SE) for at least one selected speech processing service (50_1, ..., 50_n) of one of two or more available speech processing services (50_1, ..., 50_n), wherein, during the preprocessing of the speech input (SE), one or more preprocessed speech inputs (SE_1, ..., SE_n) are generated in that a respective signal word (SW_1, ..., SW_n) associated with the respective speech processing service (50_1, ..., 50_n) is added to the speech input (SE); and - transferring the preprocessed speech inputs (SE_1, ..., SE_n) to the respective associated speech processing service (50_1, ..., 50_n). - receiving a speech input (SE) of a user; - preprocessing the speech input (SE) for at least one selected speech processing service (50_1, ..., 50_n) of one of two or more available speech processing services (50_1, ..., 50_n), wherein, during the preprocessing of the speech input (SE), one or more preprocessed speech inputs (SE_1, ..., SE_n) are generated in that a respective signal word (SW_1, ..., SW_n) associated with the respective speech processing service (50_1, ..., 50_n) is added to the speech input (SE); and - transferring the preprocessed speech inputs (SE_1, ..., SE_n) to the respective associated speech processing service (50_1, ..., 50_n).
A detector assembly including: a semiconductor detector having a first surface and a second surface opposed to each other, the first surface including pixels containing pixelated anodes , and the second surface comprising a cathode electrode ; a collimator including openings , each opening associated with a single corresponding pixel of the semiconductor detector ; and a processing unit configured to identify detected events within virtual sub-pixels distributed along a length and width of the semiconductor detector , wherein each pixel comprises a plurality of corresponding virtual sub-pixels , characterized in that the processing unit is configured to assign absorbed photons as events in a corresponding virtual sub-pixel , wherein absorbed photons are counted as events within a thickness of the semiconductor detector defined within an average absorption depth of 1/μ±1mm, where μ is the absorption coefficient for a specific photon energy for a particular detector material. a semiconductor detector having a first surface and a second surface opposed to each other, the first surface including pixels containing pixelated anodes , and the second surface comprising a cathode electrode ; a collimator including openings , each opening associated with a single corresponding pixel of the semiconductor detector ; and a processing unit configured to identify detected events within virtual sub-pixels distributed along a length and width of the semiconductor detector , wherein each pixel comprises a plurality of corresponding virtual sub-pixels , characterized in that the processing unit is configured to assign absorbed photons as events in a corresponding virtual sub-pixel , wherein absorbed photons are counted as events within a thickness of the semiconductor detector defined within an average absorption depth of 1/μ±1mm, where μ is the absorption coefficient for a specific photon energy for a particular detector material.
An electrode material for use in a battery comprising: crystalline primary particles and secondary particles, where the primary particle is formed from a plate-shaped single-phase ammonium iron phosphate spheniscidite precursor and a lithium source, the primary particles having the formula Li x FePO 4 ; where the crystalline primary particles and secondary particles exhibit an LFP phase behaviour including an extended solid-solution range; wherein (i) x is 0.2 < x < 0.8 at a temperature of 45 °C and a primary particle size of 20 - 80 nm, or (ii) x is 0.1 < x < 0.15 at a temperature of o °C and a primary particle size of 20 - 80 nm. crystalline primary particles and secondary particles, where the primary particle is formed from a plate-shaped single-phase ammonium iron phosphate spheniscidite precursor and a lithium source, the primary particles having the formula Li x FePO 4 ; where the crystalline primary particles and secondary particles exhibit an LFP phase behaviour including an extended solid-solution range; wherein (i) x is 0.2 < x < 0.8 at a temperature of 45 °C and a primary particle size of 20 - 80 nm, or (ii) x is 0.1 < x < 0.15 at a temperature of o °C and a primary particle size of 20 - 80 nm. (i) x is 0.2 < x < 0.8 at a temperature of 45 °C and a primary particle size of 20 - 80 nm, or (ii) x is 0.1 < x < 0.15 at a temperature of o °C and a primary particle size of 20 - 80 nm.
A method of transmitting data in a system including at least one data channel and a separate clock channel , the clock channel being used to decode data transmitted on the at least one data channel , comprising: combining a clock signal to be transmitted on the clock channel with a data signal , having a plurality of data words, to thereby generate a combined clock and data signal ; and transmitting the combined clock and data signal on the clock channel; wherein the data signal has been generated from the data words using an encoding scheme that shifts an energy spectrum of the combined clock and data signal away from an effective loop bandwidth of a clock recovery block and into a higher frequency spectrum than that of the effective loop bandwidth. combining a clock signal to be transmitted on the clock channel with a data signal , having a plurality of data words, to thereby generate a combined clock and data signal ; and transmitting the combined clock and data signal on the clock channel; wherein the data signal has been generated from the data words using an encoding scheme that shifts an energy spectrum of the combined clock and data signal away from an effective loop bandwidth of a clock recovery block and into a higher frequency spectrum than that of the effective loop bandwidth.
A method for producing a supplementary cementitious material, comprising the steps: - Provision of a starting material containing an aluminium silicate constituent and a dolomite constituent, wherein the weight ratio of Al 2 O 3 +SiO 2 to MgO+CaO of the starting material is in the range of 0.7 to 6, - Conversion of the starting material to the supplementary cementitious material by burning the starting material to a sintered product in the temperature range of 850 °C to 1100 °C if no mineralizers are contained, and in the temperature range of 725 °C to 950°C if mineralizers are contained. - Provision of a starting material containing an aluminium silicate constituent and a dolomite constituent, wherein the weight ratio of Al 2 O 3 +SiO 2 to MgO+CaO of the starting material is in the range of 0.7 to 6, - Conversion of the starting material to the supplementary cementitious material by burning the starting material to a sintered product in the temperature range of 850 °C to 1100 °C if no mineralizers are contained, and in the temperature range of 725 °C to 950°C if mineralizers are contained.
A method for operating an antenna comprising a flexible antenna reflector surface with a surface shaping tension cord network having a plurality of boundary points coupled to a plurality of anchor points of a perimeter hoop structure , wherein the tension cord network is coupled to the perimeter hoop structure by a plurality of resilient members , the method comprising: using the tension cord network to support the flexible antenna reflector surface such that a given shape of the flexible antenna reflector surface is provided, wherein locations of the anchor points are variable relative to the tension cord network while the antenna is in use, and wherein the flexible antenna reflector surface is held taut when the locations of the anchor points change relative to the tension cord network the method characterized in that each boundary point is coupled to one of the anchor points of the perimeter hoop structure by a respective one of the plurality of resilient members . wherein the tension cord network is coupled to the perimeter hoop structure by a plurality of resilient members , the method comprising: using the tension cord network to support the flexible antenna reflector surface such that a given shape of the flexible antenna reflector surface is provided, wherein locations of the anchor points are variable relative to the tension cord network while the antenna is in use, and wherein the flexible antenna reflector surface is held taut when the locations of the anchor points change relative to the tension cord network using the tension cord network to support the flexible antenna reflector surface such that a given shape of the flexible antenna reflector surface is provided, wherein locations of the anchor points are variable relative to the tension cord network while the antenna is in use, and wherein the flexible antenna reflector surface is held taut when the locations of the anchor points change relative to the tension cord network the method characterized in that each boundary point is coupled to one of the anchor points of the perimeter hoop structure by a respective one of the plurality of resilient members .
A method for generating sweep signals corresponding to plural sources that generate seismic waves, the method comprising: selecting a nominal sweep signal (S0) whose phase <p(t) is characterized by an instantaneous frequency F t = 1 2 π ∂ φ t ∂ t ; applying a perturbation (P) to the nominal sweep signal (S0); and calculating the sweep signals (Sn) by varying the perturbation (P), each sweep signal corresponding to a seismic source; wherein the perturbation causes a frequency rate change, d dt P(t), that is less than a predetermined fraction, y ,of a nominal sweep's frequency rate d dt F t . selecting a nominal sweep signal (S0) whose phase <p(t) is characterized by an instantaneous frequency F t = 1 2 π ∂ φ t ∂ t ; applying a perturbation (P) to the nominal sweep signal (S0); and calculating the sweep signals (Sn) by varying the perturbation (P), each sweep signal corresponding to a seismic source; wherein the perturbation causes a frequency rate change, d dt P(t), that is less than a predetermined fraction, y ,of a nominal sweep's frequency rate d dt F t .