mhurhangee/patent-ind-claim-en huggingface dataset:
An intelligent safety power tap for use in a safety network system, comprising: a circuit board ; a safety core on the circuit board , the safety core comprising one or more microcontrollers , wherein the safety core is capable of obtaining a safety message from the safety network system; a physical layer network interface connected to the safety core and the safety network system; and a safety switch controlled by the safety core , wherein the switch is capable of shutting off power for at least one of a network power zone and a switched power zone in the safety network system, wherein the safety core is configured to at least one of: send a broadcast safety message to all power taps in the safety network system so that all power taps shut off network power to all network power zones in the safety network system; send a broadcast safety message to all power taps in the safety network system so that all power taps shut off switched power to all switched power zones in the safety network system; and receive a broadcast safety message to shut off at least one of network power and switched power to all devices powered by or downstream of the intelligent safety power tap. a circuit board ; a safety core on the circuit board , the safety core comprising one or more microcontrollers , wherein the safety core is capable of obtaining a safety message from the safety network system; a physical layer network interface connected to the safety core and the safety network system; and a safety switch controlled by the safety core , wherein the switch is capable of shutting off power for at least one of a network power zone and a switched power zone in the safety network system, wherein the safety core is configured to at least one of: send a broadcast safety message to all power taps in the safety network system so that all power taps shut off network power to all network power zones in the safety network system; send a broadcast safety message to all power taps in the safety network system so that all power taps shut off switched power to all switched power zones in the safety network system; and receive a broadcast safety message to shut off at least one of network power and switched power to all devices powered by or downstream of the intelligent safety power tap. send a broadcast safety message to all power taps in the safety network system so that all power taps shut off network power to all network power zones in the safety network system; send a broadcast safety message to all power taps in the safety network system so that all power taps shut off switched power to all switched power zones in the safety network system; and receive a broadcast safety message to shut off at least one of network power and switched power to all devices powered by or downstream of the intelligent safety power tap.
A device for cooking a starch-based food item , comprising: a vessel for receiving a quantity of the starch-based food item with an initial weight; a weighing scale for weighing the starch-based food item during cooking; a heater for heating the starch-based food item ; and characterized by further comprising: a controller coupled to the weighing scale and the heater , and configured to: cause the heater to cook the starch-based food item at a first temperature for a first time duration, wherein the first temperature is higher than a starch gelatinization temperature; and in response to a determination, based on the weighing by the weighing scale , that weight of the starch-based food item drops by a first amount in a first range, cause the heater to cook the starch-based food item at a second temperature for a second time duration sufficient for the weight of the starch-based food item to drop by a second amount, such that a total drop of the first and second amounts relative to the initial weight is within a second range, wherein the second temperature is higher than the first temperature and above 150°C. a vessel for receiving a quantity of the starch-based food item with an initial weight; a weighing scale for weighing the starch-based food item during cooking; a heater for heating the starch-based food item ; and characterized by further comprising: a controller coupled to the weighing scale and the heater , and configured to: cause the heater to cook the starch-based food item at a first temperature for a first time duration, wherein the first temperature is higher than a starch gelatinization temperature; and in response to a determination, based on the weighing by the weighing scale , that weight of the starch-based food item drops by a first amount in a first range, cause the heater to cook the starch-based food item at a second temperature for a second time duration sufficient for the weight of the starch-based food item to drop by a second amount, such that a total drop of the first and second amounts relative to the initial weight is within a second range, wherein the second temperature is higher than the first temperature and above 150°C. cause the heater to cook the starch-based food item at a first temperature for a first time duration, wherein the first temperature is higher than a starch gelatinization temperature; and in response to a determination, based on the weighing by the weighing scale , that weight of the starch-based food item drops by a first amount in a first range, cause the heater to cook the starch-based food item at a second temperature for a second time duration sufficient for the weight of the starch-based food item to drop by a second amount, such that a total drop of the first and second amounts relative to the initial weight is within a second range, wherein the second temperature is higher than the first temperature and above 150°C.
Radome for vehicles, comprising a radio transmissive transparent layer and a decorative element , the decorative element comprising a brightness and tone element comprising a metal layer and one or more metalloid layers , wherein the brightness and tone element comprises two metalloid layers , each metalloid layer being made from a different metalloid.
Self-propelled front loader construction machine, in particular road milling machine, recycler or surface miner, having a machine frame , which is carried by a chassis , which has front and rear running gears (11A,B; 12A,B), a conveying device in the working direction (A) on the front side of the machine frame , a working device arranged on the machine frame for working the ground, lifting devices (13A,B; 14A,B), which are associated with the individual running gears and can be retracted and extended in each case to raise or lower the running gears (11A,B; 12A,B) in relation to the machine frame , so that the height and/or the incline of the machine frame in relation to the ground surface (B) can be changed, a position detection device detecting the height and/or the incline of the machine frame in relation to the ground surface (B), and an image display device for displaying an image of the surroundings of the construction machine, which is configured as an image display device for displaying a bird's eye view image of the surroundings of the construction machine, which image display device has a camera system with a plurality of cameras provided on the machine frame for recording individual overlapping image regions of the construction machine surroundings from different image recording positions and an image processing system , which cooperates with the position detection device and is configured in such a way that image details of the individual image regions are joined together to form a total image from a bird's eye view, wherein the course of the stitching between the image details is determined depending on the height and/or the incline of the machine frame in relation to the ground surface (B), wherein the camera system comprises: two front cameras in the working direction, which are arranged on the two sides of the transport device , so that two front image regions that overlap are recorded, a left-hand camera on the left-hand longitudinal side of the construction ma-chine in the working direction and a right-hand camera on the right-hand longitudinal side of the construction machine in the working direction (A), so that a left-hand and right-hand image region are recorded, and a rear camera in the working direction (A), so that a rear image region is recorded. two front cameras in the working direction, which are arranged on the two sides of the transport device , so that two front image regions that overlap are recorded, a left-hand camera on the left-hand longitudinal side of the construction ma-chine in the working direction and a right-hand camera on the right-hand longitudinal side of the construction machine in the working direction (A), so that a left-hand and right-hand image region are recorded, and a rear camera in the working direction (A), so that a rear image region is recorded.
A data processing apparatus comprising: branch prediction circuitry adapted to store at least one branch prediction state entry in relation to a stream of instructions; input circuitry to receive at least one input to generate a new branch prediction state entry, wherein the at least one input comprises a plurality of bits; and coding circuitry adapted to perform an encoding operation to encode at least some of the plurality of bits based on a value associated with a current execution environment in which the stream of instructions is being executed; wherein the encoding operation comprises encoding the at least some of the bits by using a key, wherein the key is based on the current execution environment in which the stream of instructions is being executed, and wherein the at least one input comprises an indication of a destination address of a branch instruction; the branch prediction circuitry is adapted to receive a query value comprising an indication of an instruction address of an instruction and to perform a search using the query value; and the apparatus comprises reverse encoding circuitry to perform a reverse encoding operation on an output of the branch prediction circuitry output in response to receiving the query value. branch prediction circuitry adapted to store at least one branch prediction state entry in relation to a stream of instructions; input circuitry to receive at least one input to generate a new branch prediction state entry, wherein the at least one input comprises a plurality of bits; and coding circuitry adapted to perform an encoding operation to encode at least some of the plurality of bits based on a value associated with a current execution environment in which the stream of instructions is being executed; wherein the encoding operation comprises encoding the at least some of the bits by using a key, wherein the key is based on the current execution environment in which the stream of instructions is being executed, and wherein the at least one input comprises an indication of a destination address of a branch instruction; the branch prediction circuitry is adapted to receive a query value comprising an indication of an instruction address of an instruction and to perform a search using the query value; and the apparatus comprises reverse encoding circuitry to perform a reverse encoding operation on an output of the branch prediction circuitry output in response to receiving the query value.
An apparatus for receiving a thermal device , comprising: a clamp assembly comprising first and second clamp bodies : the first clamp body comprising a heat transfer element and a first and a second electrical connection connected thereto; the second clamp body connectable to the first clamp body to form a clamping cavity therebetween within which a clamped element having a wall is securable, the heat transfer element configured to contact an outer surface of the clamped element therebetween; wherein the heat transfer element is conformable to a contour of the portion of the wall of the clamped element when in contact therewith; characterized in that the heat transfer element further comprises; a first thermally conductive pad portion and a second thermally conductive pad portion , the first thermally conductive pad portion extending inwardly of the clamping cavity and the second thermally conductive pad portion extending from the first thermally conductive pad portion inwardly of an opening in the first clamp body such that a perimeter ledge extends circumferentially about the location thereof where the second thermally conductive pad portion and the first thermally conductive pad portion meet, the second thermally conductive pad portion extending outwardly of the outer surface of the first clamp body . the first clamp body comprising a heat transfer element and a first and a second electrical connection connected thereto; the second clamp body connectable to the first clamp body to form a clamping cavity therebetween within which a clamped element having a wall is securable, the heat transfer element configured to contact an outer surface of the clamped element therebetween; wherein the heat transfer element is conformable to a contour of the portion of the wall of the clamped element when in contact therewith; characterized in that the heat transfer element further comprises; a first thermally conductive pad portion and a second thermally conductive pad portion , the first thermally conductive pad portion extending inwardly of the clamping cavity and the second thermally conductive pad portion extending from the first thermally conductive pad portion inwardly of an opening in the first clamp body such that a perimeter ledge extends circumferentially about the location thereof where the second thermally conductive pad portion and the first thermally conductive pad portion meet, the second thermally conductive pad portion extending outwardly of the outer surface of the first clamp body .
Thermodynamic cycle device , in particular an ORC device, comprising: a preheater for preheating a working medium; an evaporator for evaporating and superheating a first mass flow of the preheated working medium; and a volumetric expansion machine for expanding the evaporated and superheated first mass flow of the working medium; a condenser for condensing the working medium exiting said expansion machine ; and a feed pump for pumping condensed working medium to said preheater ; characterized by a first supply apparatus for supplying a second mass flow of the preheated working medium to the partially expanded first mass flow of the working medium in an expansion chamber of said volumetric expansion machine between an opening and a closing of said expansion chamber. a preheater for preheating a working medium; an evaporator for evaporating and superheating a first mass flow of the preheated working medium; and a volumetric expansion machine for expanding the evaporated and superheated first mass flow of the working medium; a condenser for condensing the working medium exiting said expansion machine ; and a feed pump for pumping condensed working medium to said preheater ; characterized by a first supply apparatus for supplying a second mass flow of the preheated working medium to the partially expanded first mass flow of the working medium in an expansion chamber of said volumetric expansion machine between an opening and a closing of said expansion chamber.
A stage for a turbomachine, comprising: a gas bearing having a housing , the gas bearing defining an interior cavity; an outer ring disposed radially outward from the housing ; and a plurality of airfoils disposed between the housing of the bearing and the outer ring; characterized in that the gas bearing, outer ring and plurality of airfoils are integrally formed. a gas bearing having a housing , the gas bearing defining an interior cavity; an outer ring disposed radially outward from the housing ; and a plurality of airfoils disposed between the housing of the bearing and the outer ring; characterized in that the gas bearing, outer ring and plurality of airfoils are integrally formed.
A collapsible pet carrier comprising: an interior space defined between opposing side walls , opposing end walls , and a bottom wall ; one or more straps attached to one of the opposing side walls and opposing end walls ; a cover movably attached over a top opening of the collapsible carrier ; characterized in that a pair of opposing pockets located on an exterior portion of the bottom wall , the pair of opposing pockets separated by a slit ; a board shaped to fit at least partially within the pair of opposing pockets and across the slit comprising a first portion that is slidably associated with a second portion such that the board is expandable in length; a closure mechanism formed along an edge of the exterior portion of the bottom wall ; wherein in an expanded configuration the board is located at least partially within both of the pair of opposing pockets of the bottom wall ; and wherein in a collapsed configuration the opposing side walls , opposing end walls , straps , and cover are folded towards the bottom wall and the bottom wall is folded along a center of the bottom wall and secured closed with the closure mechanism . an interior space defined between opposing side walls , opposing end walls , and a bottom wall ; one or more straps attached to one of the opposing side walls and opposing end walls ; a cover movably attached over a top opening of the collapsible carrier ; characterized in that a pair of opposing pockets located on an exterior portion of the bottom wall , the pair of opposing pockets separated by a slit ; a board shaped to fit at least partially within the pair of opposing pockets and across the slit comprising a first portion that is slidably associated with a second portion such that the board is expandable in length; a closure mechanism formed along an edge of the exterior portion of the bottom wall ; wherein in an expanded configuration the board is located at least partially within both of the pair of opposing pockets of the bottom wall ; and wherein in a collapsed configuration the opposing side walls , opposing end walls , straps , and cover are folded towards the bottom wall and the bottom wall is folded along a center of the bottom wall and secured closed with the closure mechanism .
An information configuration method, comprising: transmitting , by a Master Node, MN, a first request message to a Secondary Node, SN, wherein the first request message is used to request for configuring a conditional Primary Secondary Cell, PSCell, change; receiving , by the MN, a first response message transmitted by the SN, wherein the first response message is used for indicating that the SN accepts the first request message; and transmitting , by the MN to a terminal device, at least one of a PSCell change condition configuration, a target PSCell configuration, and a radio resource configuration on an MN side, characterized in that , the first request message carries a first PSCell change condition configuration, wherein the first PSCell change condition configuration is a condition configuration of the PSCell change proposed by the MN. transmitting , by a Master Node, MN, a first request message to a Secondary Node, SN, wherein the first request message is used to request for configuring a conditional Primary Secondary Cell, PSCell, change; receiving , by the MN, a first response message transmitted by the SN, wherein the first response message is used for indicating that the SN accepts the first request message; and transmitting , by the MN to a terminal device, at least one of a PSCell change condition configuration, a target PSCell configuration, and a radio resource configuration on an MN side, characterized in that , the first request message carries a first PSCell change condition configuration, wherein the first PSCell change condition configuration is a condition configuration of the PSCell change proposed by the MN.
A method for processing an audio signal , the method comprising: using linear predictive filtering for removing (S102, S104, S300-S308, S400-S402) a discontinuity between a filtered past frame and a filtered current frame of the audio signal, wherein the method comprises filtering the current frame of the audio signal and removing the discontinuity by modifying a beginning portion of the filtered current frame by a signal obtained by linear predictive filtering a predefined signal with initial states of the linear predictive filter defined on the basis of a last part of the unfiltered past frame filtered using the set of filter parameters for filtering the current frame, wherein the linear predictive filter is defined as A z = 1 ∑ m = 0 M a m z − m , wherein M is the linear predictive filter order, and wherein a m indicates the filter coefficients, with a 0 = 1. using linear predictive filtering for removing (S102, S104, S300-S308, S400-S402) a discontinuity between a filtered past frame and a filtered current frame of the audio signal, wherein the method comprises filtering the current frame of the audio signal and removing the discontinuity by modifying a beginning portion of the filtered current frame by a signal obtained by linear predictive filtering a predefined signal with initial states of the linear predictive filter defined on the basis of a last part of the unfiltered past frame filtered using the set of filter parameters for filtering the current frame, wherein the linear predictive filter is defined as A z = 1 ∑ m = 0 M a m z − m , wherein M is the linear predictive filter order, and wherein a m indicates the filter coefficients, with a 0 = 1.