mhurhangee/patent-ind-claim-en huggingface dataset:
An uplink control method, comprising: measuring, by a terminal based on a received first reference signal, a first reference signal receive power of a serving cell in which the terminal is located, and determining a downlink path loss based on the first reference signal receive power and a received first reference signal transmit power, wherein the first reference signal is sent by a first target base station of a first network to the terminal by using an air interface resource of the first network; receiving, by the terminal, a first transmit power and a second transmit power that are sent by the first target base station, wherein the first transmit power comprises: an uplink transmit power of the terminal expected by the first target base station and a path loss offset, and the second transmit power comprises: the uplink transmit power of the terminal expected by the first target base station, the path loss offset, and a penetration loss offset; and when the first reference signal receive power is greater than or equal to a preset threshold, obtaining, by the terminal, an uplink transmit power of the terminal in the first network based on the downlink path loss, the first transmit power, and a maximum transmit power of the terminal; or when the first reference signal receive power is less than a preset threshold, obtaining, by the terminal, an uplink transmit power of the terminal in the first network based on the downlink path loss, the second transmit power, and a maximum transmit power of the terminal. measuring, by a terminal based on a received first reference signal, a first reference signal receive power of a serving cell in which the terminal is located, and determining a downlink path loss based on the first reference signal receive power and a received first reference signal transmit power, wherein the first reference signal is sent by a first target base station of a first network to the terminal by using an air interface resource of the first network; receiving, by the terminal, a first transmit power and a second transmit power that are sent by the first target base station, wherein the first transmit power comprises: an uplink transmit power of the terminal expected by the first target base station and a path loss offset, and the second transmit power comprises: the uplink transmit power of the terminal expected by the first target base station, the path loss offset, and a penetration loss offset; and when the first reference signal receive power is greater than or equal to a preset threshold, obtaining, by the terminal, an uplink transmit power of the terminal in the first network based on the downlink path loss, the first transmit power, and a maximum transmit power of the terminal; or when the first reference signal receive power is less than a preset threshold, obtaining, by the terminal, an uplink transmit power of the terminal in the first network based on the downlink path loss, the second transmit power, and a maximum transmit power of the terminal.
A method of managing traffic associated with a User Equipment, UE, by a User Plane Function, UPF, in a telecommunication network, said UPF being associated with a Session Management Function, SMF, and a Network Data Analytics Function, NWDAF, wherein said UPF has access to an observation space comprising a list of possible states said network may take and wherein said UPF has access to an action space comprising a list of possible actions that said UPF is allowed to perform, said method comprising the steps of: - receiving, by said UPF, from said NWDAF, a state of said network, wherein said state is comprised by said list of possible states; - receiving, by said UPF, from said NWDAF, a reward, wherein said reward indicates a degree of satisfaction of said network to be in said state; - receiving, by said UPF, network traffic from said UE; - performing, by said UPF, triggered by said received traffic, an action comprised by said list of possible actions based on said received state of said network and based on said received reward. - receiving, by said UPF, from said NWDAF, a state of said network, wherein said state is comprised by said list of possible states; - receiving, by said UPF, from said NWDAF, a reward, wherein said reward indicates a degree of satisfaction of said network to be in said state; - receiving, by said UPF, network traffic from said UE; - performing, by said UPF, triggered by said received traffic, an action comprised by said list of possible actions based on said received state of said network and based on said received reward.
A lighting device including a series connection of a plurality of cells (160 1 , ..., 160 4 ) of light emitting diodes activatable by a feed voltage (+V, -V) applied across said series connection, wherein said cells (160 1 , ..., 160 4 ) of light emitting diodes include a first diode and a second diode arranged in parallel with opposed polarities, wherein said first diodes and said second diodes are alternatively activatable as a function of the polarity of the voltage (+V, -V) applied across the series connection of said cells (160 1 , ..., 160 4 ) of light emitting diodes, the lighting device, including: - a support member having first and second sides, and - said first and second diodes arranged on both said first and said second side of the support member wherein: - said support member is a laminar support member with opposed first and second planar sides, - the lighting device includes thermally conductive vias extending through said laminar support member , and - at both said first and said second side of the support member each said first diode is flanked by at least one said second diode , with diodes having the same polarity (161, resp. 162) arranged alternatively on both sides of the support member . - a support member having first and second sides, and - said first and second diodes arranged on both said first and said second side of the support member - said support member is a laminar support member with opposed first and second planar sides, - the lighting device includes thermally conductive vias extending through said laminar support member , and - at both said first and said second side of the support member each said first diode is flanked by at least one said second diode , with diodes having the same polarity (161, resp. 162) arranged alternatively on both sides of the support member .
A valve closure: - a closure body for attachment to a container, - a gas inlet port , - a liquid dispensing port , - valve means to sealably close the gas inlet and liquid dispensing ports, - an over-pressure relief valve which is configured to release gas from within the container in the event that an internal pressure limit is exceeded, and - user-operable depressurising means arranged to open the over-pressure relief valve, wherein the user-operable depressurising means is configured to permanently open the over-pressure relief valve when manually operated, characterised in that - the over-pressure relief valve comprises a plunger which is urged against a seat by a spring , - the user-operable depressurising means and the plunger are separate components, and - the user-operable depressurising means incorporates an abutment for the spring . - a closure body for attachment to a container, - a gas inlet port , - a liquid dispensing port , - valve means to sealably close the gas inlet and liquid dispensing ports, - an over-pressure relief valve which is configured to release gas from within the container in the event that an internal pressure limit is exceeded, and - user-operable depressurising means arranged to open the over-pressure relief valve, wherein the user-operable depressurising means is configured to permanently open the over-pressure relief valve when manually operated, characterised in that - the over-pressure relief valve comprises a plunger which is urged against a seat by a spring , - the user-operable depressurising means and the plunger are separate components, and - the user-operable depressurising means incorporates an abutment for the spring .
A binder composition for a secondary battery, comprising: a copolymer binder which includes (A) a unit derived from a vinyl-based monomer, (B) a unit derived from a conjugated diene-based monomer or a conjugated diene-based polymer, (C) a unit derived from a (meth)acrylic acid ester-based monomer, and (D) a unit derived from a water-soluble polymer, wherein the copolymer binder has a wet modulus of 0.02 MPa or more. a copolymer binder which includes (A) a unit derived from a vinyl-based monomer, (B) a unit derived from a conjugated diene-based monomer or a conjugated diene-based polymer, (C) a unit derived from a (meth)acrylic acid ester-based monomer, and (D) a unit derived from a water-soluble polymer, wherein the copolymer binder has a wet modulus of 0.02 MPa or more.
An anti-rebounding control method for an electric swing system for a hybrid excavator, comprising: comparing an electric motor speed feedback value that is a speed value fed back from an electric motor with a preset upper threshold speed value and a preset lower threshold speed value if an input speed command value is "0" in a case that an operator intends to stop a swing operation of an upper swing structure; setting a torque limit value to "0" if the electric motor speed feedback value is equal to or smaller than the upper threshold speed value and equal to or larger than the lower threshold speed value as the result of comparison, and setting a torque limit value to a maximum value so that a power is re-supplied to the electric motor if the electric motor speed feedback value is smaller than the lower threshold speed value; and intercepting the power that is supplied to the electric motor if the torque limit value is set to "0" and re-supplying the power to the electric motor if the torque limit value is set to the maximum value. comparing an electric motor speed feedback value that is a speed value fed back from an electric motor with a preset upper threshold speed value and a preset lower threshold speed value if an input speed command value is "0" in a case that an operator intends to stop a swing operation of an upper swing structure; setting a torque limit value to "0" if the electric motor speed feedback value is equal to or smaller than the upper threshold speed value and equal to or larger than the lower threshold speed value as the result of comparison, and setting a torque limit value to a maximum value so that a power is re-supplied to the electric motor if the electric motor speed feedback value is smaller than the lower threshold speed value; and intercepting the power that is supplied to the electric motor if the torque limit value is set to "0" and re-supplying the power to the electric motor if the torque limit value is set to the maximum value.
A computer-implemented method comprising: receiving wind movement data comprising at least wind speed data and wind directionality data; the method characterized by : causing rendering of a user interface comprising an animated dynamic wind indicator , wherein the dynamic wind indicator visually indicates a direction of a 3D environment based at least in part on the wind directionality data, and wherein the animation speed of the dynamic wind indicator is configured based at least in part on the wind speed data. causing rendering of a user interface comprising an animated dynamic wind indicator , wherein the dynamic wind indicator visually indicates a direction of a 3D environment based at least in part on the wind directionality data, and wherein the animation speed of the dynamic wind indicator is configured based at least in part on the wind speed data.
A compressor variable angle measurement system for guiding the positioning variable vanes supported on a penny of a compressor of a gas turbine engine , the compressor variable angle measurement system comprising a gauge assembly that is connectable to a computing device ; the compressor variable angle measurement system is characterised in that the gauge assembly comprises: a baseplate that has a first section and a second section , the first section having a first trailing edge vane engaging portion , a second trailing edge vane engaging portion , at least three vane contact portions , and a radial setting pin , the second section having an inertial measurement unit , the radial setting pin being configured to contact the penny that supports the vane; and a clamp arm that is pivotally attached to the baseplate and has a first section that has at least one vane contact portion , the first section of the clamp arm being spring urged towards the first section of the baseplate; the gauge assembly being configured to removably grip a variable vane between the vane contact portions of the baseplate and the at least one vane contact portion of the clamp arm and on the first trailing edge vane engaging portion and the second trailing edge vane engaging portion of the base plate, the stagger angle of the variable vane with respect to the radial setting pin being determined by the computing device from measurements made by the inertial measurement unit . a baseplate that has a first section and a second section , the first section having a first trailing edge vane engaging portion , a second trailing edge vane engaging portion , at least three vane contact portions , and a radial setting pin , the second section having an inertial measurement unit , the radial setting pin being configured to contact the penny that supports the vane; and a clamp arm that is pivotally attached to the baseplate and has a first section that has at least one vane contact portion , the first section of the clamp arm being spring urged towards the first section of the baseplate; the gauge assembly being configured to removably grip a variable vane between the vane contact portions of the baseplate and the at least one vane contact portion of the clamp arm and on the first trailing edge vane engaging portion and the second trailing edge vane engaging portion of the base plate, the stagger angle of the variable vane with respect to the radial setting pin being determined by the computing device from measurements made by the inertial measurement unit .
A replaceable printer component comprising: a first memory device storing a first secret; and a communication link configured to communicatively link the first memory device to a printer controller when the replaceable printer component is installed in a printing system , wherein the first memory device is configured to generate a session-key identifier and a first session-key based on the first secret and provide the session-key identifier to the printer controller in response to a request, receive a read or write request from the printer controller, the read or write request including a first message authentication code calculated using a second session-key based on the session key identifier and a second secret, wherein the first secret is derived from the second secret, and calculate a second message authentication code based on the read or write request from the printer controller and the first session-key, and perform the read or write request in response to the second message authentication code matching the first message authentication code. a first memory device storing a first secret; and a communication link configured to communicatively link the first memory device to a printer controller when the replaceable printer component is installed in a printing system , wherein the first memory device is configured to generate a session-key identifier and a first session-key based on the first secret and provide the session-key identifier to the printer controller in response to a request, receive a read or write request from the printer controller, the read or write request including a first message authentication code calculated using a second session-key based on the session key identifier and a second secret, wherein the first secret is derived from the second secret, and calculate a second message authentication code based on the read or write request from the printer controller and the first session-key, and perform the read or write request in response to the second message authentication code matching the first message authentication code.
A two-component type urethane-based adhesive composition for an automobile comprising: a first component comprising an isocyanate group-terminated polyether polyol compound, and a second component comprising a polyol compound and a curing catalyst, wherein the polyol compound in the second component contains two or more polyols and has an average hydroxyl value of the polyols of 40 to 100 [mgKOH/g], and comprises 2 to 50% by mass of a multifunctional polyol having a number of hydroxyl groups of 2.3 to 10 and a hydroxyl value of 160 to 550 [mgKOH/g], based on the mass of the polyol compound, wherein the polyol compound in the second component comprises 0.5 to 5% by mass of a multifunctional polyol having a number of hydroxyl groups of 4 to 10 and a hydroxyl value of 350 to 550 [mgKOH/g], based on the mass of the polyol compound. a first component comprising an isocyanate group-terminated polyether polyol compound, and a second component comprising a polyol compound and a curing catalyst, wherein the polyol compound in the second component contains two or more polyols and has an average hydroxyl value of the polyols of 40 to 100 [mgKOH/g], and comprises 2 to 50% by mass of a multifunctional polyol having a number of hydroxyl groups of 2.3 to 10 and a hydroxyl value of 160 to 550 [mgKOH/g], based on the mass of the polyol compound, wherein the polyol compound in the second component comprises 0.5 to 5% by mass of a multifunctional polyol having a number of hydroxyl groups of 4 to 10 and a hydroxyl value of 350 to 550 [mgKOH/g], based on the mass of the polyol compound.
Skin contact material comprising an open-celled foam ply and an adhesive layer disposed thereon and intended for skin contact, characterized in that at least that side of the foam ply that faces the adhesive layer has macropores, the cavities of which are spanned at least proportionally by a barrier layer formed from the foam ply, characterized in that the area of the barrier layer as a proportion of the surface of the foam ply is at least 20% and/or in that at least 20% of the macropores bordering the surface of the foam ply are spanned by the barrier layer.
A gas turbine engine , comprising: an engine case , the engine case including a first flange and a second flange ; an assembly for mounting an auxiliary component to the engine case of the gas turbine engine , the assembly comprising: a support bracket , the support bracket having a first end configured for attachment to the first flange of the engine case , a second end configured for attachment to the second flange of the engine case , and an intermediate portion located intermediate the first end and the second end ; a bearing member disposed within the intermediate portion ; a locator disposed within the bearing member ; a first plurality of bolts configured to attach the first end of the support bracket to the first flange ; and a second plurality of bolts configured to attach the second end of the support bracket to the second flange ; a gearbox attached to the locator , wherein the gas turbine engine is characterised by the assembly further comprising: a plurality of mechanical fuses comprised within the second plurality of bolts , wherein each of the second plurality of bolts includes an annular cut extending circumferentially about a radially outer portion of each of the second plurality of bolts . an engine case , the engine case including a first flange and a second flange ; an assembly for mounting an auxiliary component to the engine case of the gas turbine engine , the assembly comprising: a support bracket , the support bracket having a first end configured for attachment to the first flange of the engine case , a second end configured for attachment to the second flange of the engine case , and an intermediate portion located intermediate the first end and the second end ; a bearing member disposed within the intermediate portion ; a locator disposed within the bearing member ; a first plurality of bolts configured to attach the first end of the support bracket to the first flange ; and a second plurality of bolts configured to attach the second end of the support bracket to the second flange ; a support bracket , the support bracket having a first end configured for attachment to the first flange of the engine case , a second end configured for attachment to the second flange of the engine case , and an intermediate portion located intermediate the first end and the second end ; a bearing member disposed within the intermediate portion ; a locator disposed within the bearing member ; a first plurality of bolts configured to attach the first end of the support bracket to the first flange ; and a second plurality of bolts configured to attach the second end of the support bracket to the second flange ; a gearbox attached to the locator , wherein the gas turbine engine is characterised by the assembly further comprising: a plurality of mechanical fuses comprised within the second plurality of bolts , wherein each of the second plurality of bolts includes an annular cut extending circumferentially about a radially outer portion of each of the second plurality of bolts .
A test stand for evaluating a material to be used in a battery under conditions that may occur during a thermal runaway, the test stand comprising a housing , wherein in an inner space of the housing at least one activatable initiation cell , a plurality of cylindrical battery cells and the material to be evaluated being arranged in the interior space or on the housing , a first temperature sensor and at least one second temperature sensor being arranged in the inner space , a distance A 1 between the initiation cell and the first temperature sensor and a distance A 2 between the initiation cell and the second temperature sensor being different from one another, characterized in that the housing has a housing base which lies in an X-Y plane and from which also the initiation cell and the battery cells extend perpendicularly in a Z-direction, wherein a third temperature sensor is provided which measures the temperature at a height in the Z-direction which is different from the height at which the temperature is measured by the first temperature sensor and/or the temperature is measured by the second temperature sensor, wherein at least one of the temperature sensors projects vertically upwards from below through an opening in the housing base , the housing is supported on a plurality of feet so that a free space remains between the housing base and a ground on which the test stand stands with the feet , the free space being used for the mounting and arrangement of the temperature sensors.