mhurhangee/ep-ind-claims huggingface dataset:
A sensor system comprising a sensor interface circuit and an amperometric electrochemical sensor the interface circuit comprising: - a current-to-voltage converter (9, Rf) connected to a first terminal of the sensor for converting an electric current through the sensor to a voltage at an output terminal of the current-to-voltage converter (9, Rf); - a first amplifier connected between a second terminal and a third terminal (CNTR) of the sensor for maintaining a substantially fixed voltage difference between the first and second terminals (WRK, REF) of the sensor; - a power supply for powering the current-to-voltage converter (9, Rf) and for powering a first portion of the first amplifier; and - a negative voltage converter configured to generate a negative voltage output from a positive input, to power a second, different portion of the first amplifier through a low-side supply terminal, while a high-side supply terminal of the second portion of the first amplifier is directly or indirectly connected to the power supply. - a current-to-voltage converter (9, Rf) connected to a first terminal of the sensor for converting an electric current through the sensor to a voltage at an output terminal of the current-to-voltage converter (9, Rf); - a first amplifier connected between a second terminal and a third terminal (CNTR) of the sensor for maintaining a substantially fixed voltage difference between the first and second terminals (WRK, REF) of the sensor; - a power supply for powering the current-to-voltage converter (9, Rf) and for powering a first portion of the first amplifier; and - a negative voltage converter configured to generate a negative voltage output from a positive input, to power a second, different portion of the first amplifier through a low-side supply terminal, while a high-side supply terminal of the second portion of the first amplifier is directly or indirectly connected to the power supply.
A brake assembly for a bicycle, comprising: a first brake arm and a second brake arm pivotally disposed on a single pivot; a ground body disposed on the pivot and releasably securable thereto, the ground body including a link pivot; a link member pivotally disposed on the link pivot, the link member having a first end contacting the first brake arm and a second end contacting the second brake arm and arranged so as to synchronize the motion of the first brake arm and the second brake arm; and a spring biasing the first and second brake arms (12, 13) into a rest position, characterised in that said spring bears against one or both of the first and second brake arms (12, 13). a first brake arm and a second brake arm pivotally disposed on a single pivot; a ground body disposed on the pivot and releasably securable thereto, the ground body including a link pivot; a link member pivotally disposed on the link pivot, the link member having a first end contacting the first brake arm and a second end contacting the second brake arm and arranged so as to synchronize the motion of the first brake arm and the second brake arm; and a spring biasing the first and second brake arms (12, 13) into a rest position, characterised in that said spring bears against one or both of the first and second brake arms (12, 13).
Robotic cleaning device comprising: a main body; a propulsion system (12,13, 15a, 15b) arranged to move the robotic cleaning device across a surface to be cleaned; a controller arranged to control the propulsion system (12, 13, 15a, 15b) to move the robotic cleaning device across the surface to be cleaned; an opening in a bottom side of the main body via which debris is removed from the surface; and at least one rotating side brush arranged adjacent to the opening; characterized in that the controller being arranged to register a speed with which the robotic cleaning device moves across the surface to be cleaned, and further to control rotational speed of the at least one rotating side brush on the basis of the registered speed of movement of the robotic cleaning device. a main body; a propulsion system (12,13, 15a, 15b) arranged to move the robotic cleaning device across a surface to be cleaned; a controller arranged to control the propulsion system (12, 13, 15a, 15b) to move the robotic cleaning device across the surface to be cleaned; an opening in a bottom side of the main body via which debris is removed from the surface; and at least one rotating side brush arranged adjacent to the opening; characterized in that the controller being arranged to register a speed with which the robotic cleaning device moves across the surface to be cleaned, and further to control rotational speed of the at least one rotating side brush on the basis of the registered speed of movement of the robotic cleaning device.
An apparatus comprising: a first antenna and a second antenna; and a wireless transceiver coupled to the first antenna and the second antenna, the wireless transceiver configured to: transmit a proximity detection signal via the first antenna; receive a reflected proximity detection signal via the second antenna, the reflected proximity detection signal including a portion of the proximity detection signal that is reflected by an object; adjust a transmission parameter based on the reflected proximity detection signal, wherein the transmission parameter varies according to a range to the object; and transmit an uplink signal using the transmission parameter; and wherein the proximity detection signal comprises a frequency-modulated continuous wave, FMCW, signal or a multi-tone signal, and the wireless transceiver is further configured to switch between the FMCW signal or the multi-tone signal, the FMCW signal being used to detect the object at farther ranges while the multi-tone signal being used to detect the object at closer ranges. a first antenna and a second antenna; and a wireless transceiver coupled to the first antenna and the second antenna, the wireless transceiver configured to: transmit a proximity detection signal via the first antenna; receive a reflected proximity detection signal via the second antenna, the reflected proximity detection signal including a portion of the proximity detection signal that is reflected by an object; adjust a transmission parameter based on the reflected proximity detection signal, wherein the transmission parameter varies according to a range to the object; and transmit an uplink signal using the transmission parameter; and transmit a proximity detection signal via the first antenna; receive a reflected proximity detection signal via the second antenna, the reflected proximity detection signal including a portion of the proximity detection signal that is reflected by an object; adjust a transmission parameter based on the reflected proximity detection signal, wherein the transmission parameter varies according to a range to the object; and transmit an uplink signal using the transmission parameter; and wherein the proximity detection signal comprises a frequency-modulated continuous wave, FMCW, signal or a multi-tone signal, and the wireless transceiver is further configured to switch between the FMCW signal or the multi-tone signal, the FMCW signal being used to detect the object at farther ranges while the multi-tone signal being used to detect the object at closer ranges.
A stator, comprising: a stator core including a plurality of teeth and a plurality of slots each located between adjacent ones of the teeth; and a concentric coil formed by concentrically winding a rectangular wire and placed in the slots of the stator core, wherein the concentric coil comprises a slot accommodated portion placed in a slot of the plurality of slots; an interval in a circumferential direction of the stator core between an outer peripheral surface of an axial end of the slot accommodated portion about a winding center of the concentric coil and the tooth facing the outer peripheral surface is larger than an interval in the circumferential direction of the stator core between an inner peripheral surface of the axial end of the slot accommodated portion about the winding center of the concentric coil and the tooth facing the inner peripheral surface, characterized in that the interval in the circumferential direction between the concentric coil and the tooth facing the outer peripheral surface of the concentric coil gradually decreases from the axial end of the slot on a first axial side of the slot toward an axial middle portion of the slot, then gradually increases toward the vicinity of the axial middle portion, then gradually decreases, and thereafter gradually increases toward the axial end of the slot on the other axial side of the slot, such that the portion of the concentric coil, which is placed in the slot, has a wave shape. a stator core including a plurality of teeth and a plurality of slots each located between adjacent ones of the teeth; and a concentric coil formed by concentrically winding a rectangular wire and placed in the slots of the stator core, wherein the concentric coil comprises a slot accommodated portion placed in a slot of the plurality of slots; an interval in a circumferential direction of the stator core between an outer peripheral surface of an axial end of the slot accommodated portion about a winding center of the concentric coil and the tooth facing the outer peripheral surface is larger than an interval in the circumferential direction of the stator core between an inner peripheral surface of the axial end of the slot accommodated portion about the winding center of the concentric coil and the tooth facing the inner peripheral surface, characterized in that the interval in the circumferential direction between the concentric coil and the tooth facing the outer peripheral surface of the concentric coil gradually decreases from the axial end of the slot on a first axial side of the slot toward an axial middle portion of the slot, then gradually increases toward the vicinity of the axial middle portion, then gradually decreases, and thereafter gradually increases toward the axial end of the slot on the other axial side of the slot, such that the portion of the concentric coil, which is placed in the slot, has a wave shape.
A location-based group generation method, to create a group that includes a first mobile terminal and other mobile terminals in a location area of the first mobile terminal comprising: storing mobile terminal location information corresponding to mobile terminal identifiers; receiving a group generation request that carries the location area from the first mobile terminal, wherein the location area is one of a circular and a rectangular area centered on a location point and extended to a specific distance, the location point is a location point of the first mobile terminal, and the location point of the first mobile terminal is determined by using a Global Positioning System, GPS, module in the first mobile terminal; determining, according to the stored mobile terminal location information, the other mobile terminal identifiers in the location area carried in the group generation request besides a first mobile terminal identifier; and setting the determined other mobile terminal identifiers and the first mobile terminal identifier into the group corresponding to a group identifier, receiving a group message that carries the group identifier and group information from a mobile terminal (21, 22) in the group; determining a group corresponding to the group identifier, and sending the group information carried in the group message to mobile terminals (21, 22) in the group corresponding to the group identifier except the mobile terminal (21, 22) that sends the group message. storing mobile terminal location information corresponding to mobile terminal identifiers; receiving a group generation request that carries the location area from the first mobile terminal, wherein the location area is one of a circular and a rectangular area centered on a location point and extended to a specific distance, the location point is a location point of the first mobile terminal, and the location point of the first mobile terminal is determined by using a Global Positioning System, GPS, module in the first mobile terminal; determining, according to the stored mobile terminal location information, the other mobile terminal identifiers in the location area carried in the group generation request besides a first mobile terminal identifier; and setting the determined other mobile terminal identifiers and the first mobile terminal identifier into the group corresponding to a group identifier, receiving a group message that carries the group identifier and group information from a mobile terminal (21, 22) in the group; determining a group corresponding to the group identifier, and sending the group information carried in the group message to mobile terminals (21, 22) in the group corresponding to the group identifier except the mobile terminal (21, 22) that sends the group message.
A host cell comprising a first polynucleotide encoding a proprotein of Factor IX (proFIX), or a fusion protein thereof, and a second polynucleotide encoding a functional mammalian subtilisin/Kex2p-like proprotein convertase.
Method for regulating the output of steam generators for generating power and/or providing heat whilst taking into account the use of steam-operated and/or water-operated cleaning equipment during the operation of the steam generator, comprising: - the monitoring of state variables of the steam generator which permit indirect or direct conclusions to be drawn about the effectiveness and/or the level of contamination of heating surfaces of the steam generator, characterized by - the creation of an effectiveness prediction by using the measured and/or determined state variables, - the creation of a load prediction as a function of the power demand and/or the heat demand, - the creation of a prediction for the anticipated available maximum output of the steam generator as an availability prediction and as a function of the ambient temperature and/or the fuel quality, - the determination of an optimal cleaning time in the sense of technical availability of the steam generator as a function of the effectiveness prediction, wherein, depending on the load prediction and the availability prediction, a target cleaning operation to be initiated according to the effectiveness prediction is changed under the conditions that a predefined minimum effectiveness of the heating surfaces of the steam generator is not undershot and/or a predefined maximum permissible contamination of the heating surfaces is not exceeded. - the monitoring of state variables of the steam generator which permit indirect or direct conclusions to be drawn about the effectiveness and/or the level of contamination of heating surfaces of the steam generator, characterized by - the creation of an effectiveness prediction by using the measured and/or determined state variables, - the creation of a load prediction as a function of the power demand and/or the heat demand, - the creation of a prediction for the anticipated available maximum output of the steam generator as an availability prediction and as a function of the ambient temperature and/or the fuel quality, - the determination of an optimal cleaning time in the sense of technical availability of the steam generator as a function of the effectiveness prediction, wherein, depending on the load prediction and the availability prediction, a target cleaning operation to be initiated according to the effectiveness prediction is changed under the conditions that a predefined minimum effectiveness of the heating surfaces of the steam generator is not undershot and/or a predefined maximum permissible contamination of the heating surfaces is not exceeded.
The compound 3,3,3-trifluoro- N ((1,4- trans)-4-((3-( -2-methylmorpholino)-1 H- pyrazolo[3,4-d]pyrimidin-6-yl)amino)cyclohexyl)propane-1-sulfonamide, having the Formula: or a salt thereof.
A grouting structure filled with soluble crystals, comprising: a drain pipe, a water-permeable section and a grouting section, wherein the water-permeable section is located at the lower part of a declination borehole, and the grouting section is situated at the upper part of the borehole; a water-stop component is arranged between the water-permeable section and the grouting section; a permeable pipe is arranged in the water-permeable section; the top of the permeable pipe is in contact with the water-stop component; a cavity is formed in the permeable pipe; the groundwater penetrates into the cavity through the permeable pipe; a water inlet of the drain pipe is arranged in the water-permeable section, and the water inlet of the drain pipe is inserted into the permeable pipe after passing through the water-stop component; a water outlet of the drain pipe is located at the lower part of the slope; an elevation of the water inlet of the drain pipe is higher than that of the water outlet of the drain pipe, and the lift of the drain pipe is less than the height of the water column corresponding to the atmospheric pressure; a space between the drain pipe and the wall of the borehole of the grouting section is grounted; wherein the permeable pipe is filled with solid soluble crystals;
A daily dosage unit for inhibiting ovulation comprising: i) micronised drospirenone and a micronised complex between ethinyl estradiol and a cyclodextrin, wherein drospirenone is present in an amount of from 2 mg to 4 mg, and wherein ethinyl estradiol is present in an amount of from 0.01 mg to 0.05 mg; and ii) one or more excipient(s); wherein the daily dosage unit is free of polyvinylpyrrolidone. i) micronised drospirenone and a micronised complex between ethinyl estradiol and a cyclodextrin, wherein drospirenone is present in an amount of from 2 mg to 4 mg, and wherein ethinyl estradiol is present in an amount of from 0.01 mg to 0.05 mg; and ii) one or more excipient(s); wherein the daily dosage unit is free of polyvinylpyrrolidone.
A method of distributed management of network slices, wherein each network slice comprises one or more network elements (2a, 2b, 4, 5a, 5b, 6, 7) and provides one or more devices (3a, 3b) with network connectivity to services, the method being performed in a network element (2a, 2b, 4, 5a, 5b, 6, 7) of a communications system and comprising: - receiving, by means of a gossip protocol, information from one or more neighboring network elements (2a, 2b, 4, 5a, 5b, 6, 7), and - performing, based on the received information, an action relating to one or more network slices, which network slices provide a first device with wireless connectivity to a service, wherein the information comprises information related to a service requirement of the first device, and the step of performing the action comprises allocating, based on the information, communication resources for providing the network connectivity to the first device. - receiving, by means of a gossip protocol, information from one or more neighboring network elements (2a, 2b, 4, 5a, 5b, 6, 7), and - performing, based on the received information, an action relating to one or more network slices, which network slices provide a first device with wireless connectivity to a service, wherein the information comprises information related to a service requirement of the first device, and the step of performing the action comprises allocating, based on the information, communication resources for providing the network connectivity to the first device.
Housing, having a housing base body, wherein an opening is formed on at least one side surface of the housing base body, having a seal element which is placed on the side surface comprising the opening in such a way that the seal element borders the opening, having a frame element which is placed on the side surface comprising the opening in such a way that the frame element borders the seal element, and having a cover element which is intended to close the opening and which, in a closed state of the opening, is placed areally on the frame element and the seal element, wherein the cover element can be fastened to the housing base body by way of fastening means, characterized in that, in the closed state, the fastening means are guided through the cover element and the seal element.
An inverter compressor operating method for operating an inverter compressor that compresses a refrigerant, said inverter compressor being driven by a motor that is supplied with an alternating current from an inverter characterized in that said inverter has a high-arm-side switch and a boot capacitor functioning as an operating power supply for outputting a switch signal to said high-arm-side switch, wherein an operation of charging said boot capacitor performed prior to a normal operation of said inverter compressor is performed at a carrier frequency that is lower than a carrier frequency for said normal operation.
A method for determining porosity of a part comprising: determining scan data of the part, the scan data comprising data of a plurality of sequential segments, wherein determining scan data of the part comprises scanning the part using a volumetric computed tomography process, wherein determining scan data of the part comprises determining scan data within a region of interest based on the scan data of the plurality of sequential segments; determining a background model for the part, the scan data, or both, wherein the background model includes background data indicative of an anticipated density of the part at the plurality of sequential segments, wherein determining the background model for the part, the scan data, or both comprises determining background data within the region of interest based on the background model; and determining a bulk porosity based on a difference between the scan data and the background model, wherein determining the bulk porosity based on the difference between the scan data and the background model comprises determining data indicative of a signal to background ratio within the region of interest relating the scan data to the background data. determining scan data of the part, the scan data comprising data of a plurality of sequential segments, wherein determining scan data of the part comprises scanning the part using a volumetric computed tomography process, wherein determining scan data of the part comprises determining scan data within a region of interest based on the scan data of the plurality of sequential segments; determining a background model for the part, the scan data, or both, wherein the background model includes background data indicative of an anticipated density of the part at the plurality of sequential segments, wherein determining the background model for the part, the scan data, or both comprises determining background data within the region of interest based on the background model; and determining a bulk porosity based on a difference between the scan data and the background model, wherein determining the bulk porosity based on the difference between the scan data and the background model comprises determining data indicative of a signal to background ratio within the region of interest relating the scan data to the background data.