mhurhangee/patent-ind-claim-en huggingface dataset:
An information reporting method in a non terrestrial network, NTN, system, comprising: reporting , by a terminal, a first timing difference to a serving cell base station, wherein the first timing difference is a difference between a first propagation delay and a second propagation delay, the first propagation delay is a propagation delay between the terminal and a serving cell satellite, and the second propagation delay is a propagation delay between the terminal and a neighboring cell satellite, wherein the first timing difference is reported for the purpose of being use by the serving cell base station to configure a second offset value for a synchronization block measurement timing configuration, SMTC, of the neighboring cell. reporting , by a terminal, a first timing difference to a serving cell base station, wherein the first timing difference is a difference between a first propagation delay and a second propagation delay, the first propagation delay is a propagation delay between the terminal and a serving cell satellite, and the second propagation delay is a propagation delay between the terminal and a neighboring cell satellite, wherein the first timing difference is reported for the purpose of being use by the serving cell base station to configure a second offset value for a synchronization block measurement timing configuration, SMTC, of the neighboring cell.
Application unit for attaching a sealing profile to a body component serving to close a body opening, comprising a rolling head and a pressure roller which is held on the rolling head and can be driven in rotation about an axis of rotation D, in order to use the pressure roller to press the sealing profile with a pressure force F A in a pressure direction R A against the body component , characterized in that , in an attachment region of the pressure roller on the rolling head , a sensor unit is arranged circumferentially and concentrically about the axis of rotation D of the pressure roller in order to detect a stress, in the attachment region , representing the pressure force F A . a rolling head and a pressure roller which is held on the rolling head and can be driven in rotation about an axis of rotation D, in order to use the pressure roller to press the sealing profile with a pressure force F A in a pressure direction R A against the body component , characterized in that , in an attachment region of the pressure roller on the rolling head , a sensor unit is arranged circumferentially and concentrically about the axis of rotation D of the pressure roller in order to detect a stress, in the attachment region , representing the pressure force F A .
Work machine comprising a machine base mounted movably over an undercarriage and a hydraulic arrangement , a working blade pivotally carried by the undercarriage, a working element pivotally connected to machine base, said hydraulic arrangement comprising: - a first cylinder configured for operating a working blade of said work machine , - a second cylinder configured to vary the width (W) of said undercarriage , - a source of fluid at high pressure (F HP ) which is fluidly connected to said first and second cylinders and which is housed in said machine base , and - a selection valve which is fluidly interposed between said source (F HP ) and at least one of said first and second cylinders , wherein said valve is housed in said undercarriage , characterized in that said hydraulic arrangement comprises a feedback line configured to detect a pressure value in an inlet hose of said first cylinder and to switch position of said valve when said pressure overcome a preset threshold said feedback line being entirely housed in said undercarriage . - a first cylinder configured for operating a working blade of said work machine , - a second cylinder configured to vary the width (W) of said undercarriage , - a source of fluid at high pressure (F HP ) which is fluidly connected to said first and second cylinders and which is housed in said machine base , and - a selection valve which is fluidly interposed between said source (F HP ) and at least one of said first and second cylinders , wherein said valve is housed in said undercarriage ,
A method performed by a wireless device in a wireless communication system , comprising: obtaining information indicating a coverage level (113a-d) of the wireless device; determining , from amongst different power headroom report mappings (115a-d) respectively associated with different coverage levels of the wireless device, the power headroom report mapping associated with the coverage level indicated by the obtained information, the power headroom report mappings (115a-d) each defining a mapping of reported values to measured values of power headroom, which is defined as a difference between nominal maximum output power and estimated output power of the wireless device, and differing from each other with respect to reporting resolutions and/or reporting ranges of power headroom information; and reporting the power headroom information using the determined power headroom report mapping. obtaining information indicating a coverage level (113a-d) of the wireless device; determining , from amongst different power headroom report mappings (115a-d) respectively associated with different coverage levels of the wireless device, the power headroom report mapping associated with the coverage level indicated by the obtained information, the power headroom report mappings (115a-d) each defining a mapping of reported values to measured values of power headroom, which is defined as a difference between nominal maximum output power and estimated output power of the wireless device, and differing from each other with respect to reporting resolutions and/or reporting ranges of power headroom information; and reporting the power headroom information using the determined power headroom report mapping.
Apparatus for influencing the temperature in a building, comprising: - a central heat pump unit with a warm liquid outlet to a warm liquid piping , a cold liquid outlet to a cold liquid piping and a liquid inlet connected with a return liquid piping , - a condenser as a part of the central heat pump unit being connected with the warm liquid outlet and the liquid inlet , - an evaporator as a part of the central heat pump unit being connected with the cold liquid outlet and the liquid inlet , - a compressor as a part of the central heat pump unit to pressurize a refrigerant, - a heat exchanger as a part of the central heat pump unit to evaporate and heat or to condensate and cool the refrigerant, - a refrigerant piping as a part of the central heat pump unit being connected with the condenser , the evaporator , the compressor and the heat exchanger , which distributes the refrigerant in the central heat pump unit , and - at least one indoor unit being connected with the warm liquid outlet by the warm liquid piping , the cold liquid outlet by the cold liquid piping and the liquid inlet by the return liquid piping . - a central heat pump unit with a warm liquid outlet to a warm liquid piping , a cold liquid outlet to a cold liquid piping and a liquid inlet connected with a return liquid piping , - a condenser as a part of the central heat pump unit being connected with the warm liquid outlet and the liquid inlet , - an evaporator as a part of the central heat pump unit being connected with the cold liquid outlet and the liquid inlet , - a compressor as a part of the central heat pump unit to pressurize a refrigerant, - a heat exchanger as a part of the central heat pump unit to evaporate and heat or to condensate and cool the refrigerant, - a refrigerant piping as a part of the central heat pump unit being connected with the condenser , the evaporator , the compressor and the heat exchanger , which distributes the refrigerant in the central heat pump unit , and - at least one indoor unit being connected with the warm liquid outlet by the warm liquid piping , the cold liquid outlet by the cold liquid piping and the liquid inlet by the return liquid piping .
A waste treatment incinerator for treatment of solid waste materials, the waste treatment incinerator comprising: a furnace including a housing defining a treatment space (S), wherein the furnace includes an activated charcoal layer located in the treatment space (S), and wherein an exhaust pipe is connected to the activated charcoal layer ; and a microwave transmitting module aligned with the activated charcoal layer . a furnace including a housing defining a treatment space (S), wherein the furnace includes an activated charcoal layer located in the treatment space (S), and wherein an exhaust pipe is connected to the activated charcoal layer ; and a microwave transmitting module aligned with the activated charcoal layer .
A charge transfer system , comprising: a plug-in power supply directly and electrically connected between at least one of a first plurality of switch legs (A, B, C) of a first inverter and at least one of a second plurality of switch legs (A', B', C') of a second inverter , wherein a switch leg is a pair of serially connected switching elements of an inverter; and a controller operatively coupled to the first inverter and the second inverter , wherein the controller selectively modulates switch legs such that electric current flow alternates between at least one of the first plurality of stator windings (L1, L2, L3) of a first motor to charge the on-board vehicle power supply during a first plug-in supply voltage polarity state and at least one of the second plurality of stator windings (L4, L5, L6) of a second motor to charge the on-board vehicle power supply during a second plug-in supply voltage polarity state. a plug-in power supply directly and electrically connected between at least one of a first plurality of switch legs (A, B, C) of a first inverter and at least one of a second plurality of switch legs (A', B', C') of a second inverter , wherein a switch leg is a pair of serially connected switching elements of an inverter; and a controller operatively coupled to the first inverter and the second inverter , wherein the controller selectively modulates switch legs such that electric current flow alternates between at least one of the first plurality of stator windings (L1, L2, L3) of a first motor to charge the on-board vehicle power supply during a first plug-in supply voltage polarity state and at least one of the second plurality of stator windings (L4, L5, L6) of a second motor to charge the on-board vehicle power supply during a second plug-in supply voltage polarity state.
Method for determining a flow situation in a vessel , wherein according to the method - a first image data set containing image information relating to the vessel is used, - a vascular tree of the vessel is segmented on the basis of the first image data set , - an organ is segmented on the basis of the first image data set or of a second image data set, - the organ is assigned at least one area (A 1 -A 5 ) of a parenchyma of the organ , characterised in that - by means of texture analysis which comprises a mathematical or numerical analysis of minute irregularities within the area, a texture of the area (A 1 -A 5 ) of the organ is determined, - depending on the texture, the area (A 1 -A 5 ) of the organ is assigned a flow characteristic (W W1 -W W5 ), - depending on the vascular tree and the flow characteristic (W W1 -W W5 ) assigned to the area (A 1 -A 5 ) of the organ , a value (p BI ) of a measured variable characteristic of the flow situation within the vessel is determined by means of a numerical method. - a first image data set containing image information relating to the vessel is used, - a vascular tree of the vessel is segmented on the basis of the first image data set , - an organ is segmented on the basis of the first image data set or of a second image data set, - the organ is assigned at least one area (A 1 -A 5 ) of a parenchyma of the organ , characterised in that - by means of texture analysis which comprises a mathematical or numerical analysis of minute irregularities within the area, a texture of the area (A 1 -A 5 ) of the organ is determined, - depending on the texture, the area (A 1 -A 5 ) of the organ is assigned a flow characteristic (W W1 -W W5 ), - depending on the vascular tree and the flow characteristic (W W1 -W W5 ) assigned to the area (A 1 -A 5 ) of the organ , a value (p BI ) of a measured variable characteristic of the flow situation within the vessel is determined by means of a numerical method.
An inhalation component generation system, comprising a charger for an inhalation component generation device and a power supply unit of the inhalation component generation device , the charger comprising: a connection part comprising two terminals that are electrically connectable to the power supply unit ; a sensor (230; 240) that is capable of acquiring a value of a voltage difference between the two terminals or of a current flowing into and from the two terminals , the value related to an electrical resistance value of a resistor provided in the power supply unit , and outputting the value as an output value; and a first control part that is configured to, based on the output value, change a predetermined control with respect to the power supply unit connectable to the connection part , wherein the predetermined control is a control for charging a power supply provided in the power supply unit , and changing the predetermined control comprises: changing a C rate for charging the power supply through the two terminals to be a C rate determined according to a type of the power supply unit , the type determined according to the output value, wherein the power supply unit is configured such that the two terminals of said charger are unable to be connected to the power supply unit while a load of an atomizing unit detachably comprised by the inhalation component generation device is connected to the power supply unit . a connection part comprising two terminals that are electrically connectable to the power supply unit ; a sensor (230; 240) that is capable of acquiring a value of a voltage difference between the two terminals or of a current flowing into and from the two terminals , the value related to an electrical resistance value of a resistor provided in the power supply unit , and outputting the value as an output value; and a first control part that is configured to, based on the output value, change a predetermined control with respect to the power supply unit connectable to the connection part , wherein the predetermined control is a control for charging a power supply provided in the power supply unit , and changing the predetermined control comprises: changing a C rate for charging the power supply through the two terminals to be a C rate determined according to a type of the power supply unit , the type determined according to the output value, wherein the power supply unit is configured such that the two terminals of said charger are unable to be connected to the power supply unit while a load of an atomizing unit detachably comprised by the inhalation component generation device is connected to the power supply unit .
A nitrification inhibiting product comprising a basic reaction product from the reaction of formaldehyde, an ammonia source, urea, and a nitrification inhibitor, wherein the nitrification inhibitor is selected from the group consisting of 2-chloro-6-trichloromethyl-pyridine, 5-ethoxy-3-trichloromethyl-1,2,4-thiadiazol, dicyandiamide, 2- amino-4-chloro-6-methyl-pyrimidine, 1,3-benzothiazole-2-thiol, 4-amino-N-1,3-thiazol-2-ylbenzenesulfonamide, thiourea, guanidine, 3,4-dimethylpyrazole phosphate, 2,4-diamino-6-trichloromethyl-5-triazine, polyetherionophores, 4-amino-1,2,4-triazole, 3-mercapto-1,2,4-triazole, potassium azide, carbon bisulfide, sodium trithiocarbonate, ammonium dithiocarbamate, 2,3-dihydro-2,2-dimethyl-7-benzofuranol, methyl-carbamate, N-(2,6- dimethylphenyl)-N-(methoxyacetyl)-alanine methyl ester, ammonium thiosulfate, 1- hydroxypyrazole, 2-methylpyrazole-1-carboxamide, and combinations thereof.
A non-aqueous electrolyte secondary battery comprising: a positive electrode ; a negative electrode ; and a non-aqueous electrolyte solution, wherein the negative electrode includes a negative electrode current collector and a negative electrode active material layer provided on the negative electrode current collector , the negative electrode active material layer contains graphite particles A and graphite particles B as a negative electrode active material, an internal porosity of the graphite particles A is 5% or less, and an internal porosity of the graphite particles B is 8% to 20%, the graphite particles A are contained more in a half region on an outer surface side of the negative electrode active material layer than in a half region on a negative electrode current collecting side of the negative electrode active material layer when the negative electrode active material layer is divided into two equal parts in a thickness direction, and the non-aqueous electrolyte solution contains a diisocyanate compound. the negative electrode includes a negative electrode current collector and a negative electrode active material layer provided on the negative electrode current collector , the negative electrode active material layer contains graphite particles A and graphite particles B as a negative electrode active material, an internal porosity of the graphite particles A is 5% or less, and an internal porosity of the graphite particles B is 8% to 20%, the graphite particles A are contained more in a half region on an outer surface side of the negative electrode active material layer than in a half region on a negative electrode current collecting side of the negative electrode active material layer when the negative electrode active material layer is divided into two equal parts in a thickness direction, and the non-aqueous electrolyte solution contains a diisocyanate compound.
Method for controlling an ultrasonic sensor for a vehicle, which ultrasonic sensor is attached in a cutout of a trim of the vehicle, wherein the ultrasonic sensor comprises an ultrasound membrane for transmitting and receiving ultrasonic signals, the method comprising the steps of: monitoring air pressure changes in the region of the ultrasound membrane , identifying a cyclical air pressure change in the air pressure changes, and adjusting a detection of objects using the ultrasonic sensor on the basis of the cyclical air pressure change, wherein the method comprises an additional step for monitoring a movement speed of the vehicle, and the step of adjusting a detection of objects using the ultrasonic sensor on the basis of the cyclical air pressure change is implemented with additional consideration given to the movement speed of the vehicle, wherein the step of adjusting a detection of objects using the ultrasonic sensor on the basis of the cyclical air pressure change comprises setting a transmission behaviour and a reception behaviour of the ultrasonic sensor on the basis of the cyclical air pressure change. monitoring air pressure changes in the region of the ultrasound membrane , identifying a cyclical air pressure change in the air pressure changes, and adjusting a detection of objects using the ultrasonic sensor on the basis of the cyclical air pressure change, wherein the method comprises an additional step for monitoring a movement speed of the vehicle, and the step of adjusting a detection of objects using the ultrasonic sensor on the basis of the cyclical air pressure change is implemented with additional consideration given to the movement speed of the vehicle, wherein the step of adjusting a detection of objects using the ultrasonic sensor on the basis of the cyclical air pressure change comprises setting a transmission behaviour and a reception behaviour of the ultrasonic sensor on the basis of the cyclical air pressure change.
Method for checking the starting up of equipment embedded in a vehicle , said method comprising: - a step of obtaining, by said embedded equipment , of data generated by an electronic tachograph embedded in said vehicle , the data being date-stamped with a current date, contained in said data, at which said data were obtained from the electronic tachograph, said obtained data being signed with a signature of the tachograph, - a step of transmission, by said embedded equipment , of the obtained data to a checking device , - a step of checking, by the checking device , of the integrity of said data from said signature, and, - a generation step during which, if the integrity of the data is proved, the checking device generates information representative of the existence of a proof of the starting up of said equipment at said current date. - a step of obtaining, by said embedded equipment , of data generated by an electronic tachograph embedded in said vehicle , the data being date-stamped with a current date, contained in said data, at which said data were obtained from the electronic tachograph, said obtained data being signed with a signature of the tachograph, - a step of transmission, by said embedded equipment , of the obtained data to a checking device , - a step of checking, by the checking device , of the integrity of said data from said signature, and, - a generation step during which, if the integrity of the data is proved, the checking device generates information representative of the existence of a proof of the starting up of said equipment at said current date.
A method of operation of a wireless device (12-2) in a cellular communications network , comprising: performing a sidelink-assisted clear channel assessment, SLA-CCA, procedure to determine whether to transmit on an unlicensed channel, the SLA-CCA procedure being a Clear Channel Assessment, CCA, procedure that is assisted by information received by the wireless device (12-2) from one or more other wireless devices (12-1) over a Device-to-Device, D2D, sidelink in a licensed spectrum; and upon determining to transmit on the unlicensed channel as a result of performing the SLA-CCA procedure, transmitting a transmission on the unlicensed channel, and transmitting a message on a D2D sidelink, the message comprising an indication that the wireless device (12-2) is using the unlicensed channel, wherein the message further comprises an indication of an intended receiver of the transmission by the wireless device (12-2) in the unlicensed channel. performing a sidelink-assisted clear channel assessment, SLA-CCA, procedure to determine whether to transmit on an unlicensed channel, the SLA-CCA procedure being a Clear Channel Assessment, CCA, procedure that is assisted by information received by the wireless device (12-2) from one or more other wireless devices (12-1) over a Device-to-Device, D2D, sidelink in a licensed spectrum; and upon determining to transmit on the unlicensed channel as a result of performing the SLA-CCA procedure, transmitting a transmission on the unlicensed channel, and transmitting a message on a D2D sidelink, the message comprising an indication that the wireless device (12-2) is using the unlicensed channel, wherein the message further comprises an indication of an intended receiver of the transmission by the wireless device (12-2) in the unlicensed channel.