mhurhangee/patent-ind-claim-en huggingface dataset:
An elevator system comprising: a component ; an elevator vandalism monitoring system for determining an act of vandalism upon the component , the elevator vandalism monitoring system comprising: a sensor configured to monitor a detectable parameter associated with the component , and output a detectable parameter signal; at least one processor configured to receive the detectable parameter signal; at least one electronic storage medium; a model stored in the at least one electronic storage medium; and a vandalism comparison module executed by the at least one processor , characterised in that the model is associated with expected feature values associated with the component as a function of time, and the vandalism comparison module is configured to generally compare the model to actual feature values extracted from the detectable parameter signal for determining if the parameter anomaly exists; and the elevator system further comprises a health monitoring system configured to be at least in-part executed by the at least one processor , receive the parameter signal, extract the actual feature values from the parameter signal, and apply machine learning to determine a degradation level of the component associated with the actual feature values to develop the model . a component ; an elevator vandalism monitoring system for determining an act of vandalism upon the component , the elevator vandalism monitoring system comprising: a sensor configured to monitor a detectable parameter associated with the component , and output a detectable parameter signal; at least one processor configured to receive the detectable parameter signal; at least one electronic storage medium; a model stored in the at least one electronic storage medium; and a vandalism comparison module executed by the at least one processor , a sensor configured to monitor a detectable parameter associated with the component , and output a detectable parameter signal; at least one processor configured to receive the detectable parameter signal; at least one electronic storage medium; a model stored in the at least one electronic storage medium; and a vandalism comparison module executed by the at least one processor , characterised in that the model is associated with expected feature values associated with the component as a function of time, and the vandalism comparison module is configured to generally compare the model to actual feature values extracted from the detectable parameter signal for determining if the parameter anomaly exists; and the elevator system further comprises a health monitoring system configured to be at least in-part executed by the at least one processor , receive the parameter signal, extract the actual feature values from the parameter signal, and apply machine learning to determine a degradation level of the component associated with the actual feature values to develop the model .
A method for data transmission between a sender and a receiver , the method comprising: monitoring data packets transmitted from the sender to the receiver , the data packets being received in discontinuous reception operation on the basis of a discontinuous reception cycle configured at the receiver ; and on the basis of said monitoring, estimating at least a starting time (TA) of an active period of a discontinuous reception cycle implemented at the receiver , said method being characterised in that said monitoring and estimating being performed on an application layer, without requiring access to lower protocol layers implementing the discontinuous reception operation. monitoring data packets transmitted from the sender to the receiver , the data packets being received in discontinuous reception operation on the basis of a discontinuous reception cycle configured at the receiver ; and on the basis of said monitoring, estimating at least a starting time (TA) of an active period of a discontinuous reception cycle implemented at the receiver , said method being characterised in that said monitoring and estimating being performed on an application layer, without requiring access to lower protocol layers implementing the discontinuous reception operation.
An antibody or antigen binding fragment thereof that binds P-cadherin comprising a heavy chain variable region that comprises a VH CDR1 of SEQ ID NO: 1, a VH CDR2 of SEQ ID NO: 2, and a VH CDR3 of SEQ ID NO: 3, wherein the CDR is defined in accordance with the Kabat definition; and a light chain variable region that comprises a VL CDR1 of SEQ ID NO: 11, a VL CDR2 of SEQ ID NO: 12, and a VL CDR3 of SEQ ID NO: 13, wherein the CDR is defined in accordance with the Kabat definition;
A building comprising a heat energy system for heating or maintaining thermal balance of an interior of at least a part of the building, wherein the heat energy system comprising containers built near to surrounding surfaces of the building, wherein said containers define a fluid volume which is filled with heat transporting fluid, said containers are closed containers built near to at least two opposite lateral surrounding surfaces (9-12) and at least a part of upper and lower horizontal surrounding surfaces , of said building; the neighboring containers are interconnected via joint elements in such a manner that all containers define one closed fluid volume filled with said heat transporting fluid, characterized in that each container is divided into two parts by a separating plate which is parallel to the side of the container , one of the parts is connected to the closed fluid volume and the other part constitutes a heat exchanger , the heat exchanger is connected to a conventional energy system of the building and/or to a heat storage unit . said containers define a fluid volume which is filled with heat transporting fluid, said containers are closed containers built near to at least two opposite lateral surrounding surfaces (9-12) and at least a part of upper and lower horizontal surrounding surfaces , of said building; the neighboring containers are interconnected via joint elements in such a manner that all containers define one closed fluid volume filled with said heat transporting fluid, characterized in that each container is divided into two parts by a separating plate which is parallel to the side of the container , one of the parts is connected to the closed fluid volume and the other part constitutes a heat exchanger , the heat exchanger is connected to a conventional energy system of the building and/or to a heat storage unit .
Heat exchanger for indirect heat transfer between a process medium (P) and at least a first refrigerant (M), the heat exchanger comprising: - a shell which surrounds a shell space and extends along a longitudinal axis (z), - a pipe bundle which is arranged in the shell space and extends along the longitudinal axis (z) of the shell from a lower end to an upper end of the pipe bundle in the shell space , wherein the pipe bundle has a plurality of first pipes for receiving the first refrigerant (M), which first pipes are arranged in different pipe layers, wherein the first pipes are wound helically onto a core pipe of the heat exchanger , which core pipe extends along the longitudinal axis (z) of the shell in the shell space , characterized in that the first pipes each have an end which is formed by at least one nozzle via which the first refrigerant (M) can be introduced into the shell space , wherein the ends are arranged along the longitudinal axis (z) of the shell at different heights between the lower end and the upper end of the pipe bundle . - a shell which surrounds a shell space and extends along a longitudinal axis (z), - a pipe bundle which is arranged in the shell space and extends along the longitudinal axis (z) of the shell from a lower end to an upper end of the pipe bundle in the shell space , wherein the pipe bundle has a plurality of first pipes for receiving the first refrigerant (M), which first pipes are arranged in different pipe layers, wherein the first pipes are wound helically onto a core pipe of the heat exchanger , which core pipe extends along the longitudinal axis (z) of the shell in the shell space , characterized in that the first pipes each have an end which is formed by at least one nozzle via which the first refrigerant (M) can be introduced into the shell space , wherein the ends are arranged along the longitudinal axis (z) of the shell at different heights between the lower end and the upper end of the pipe bundle .
An automatic dishwasher configured to implement an automatic treating cycle of operation, comprising: a tub defining a dish treating chamber ; a dish rack located within the dish treating chamber and comprising a bottom wall defining at least one plane; a utensil caddy , removably mounted to the dish rack , and comprising a periphery defining an interior with an open top , the periphery having at least first (120; 220; 320) and second (122; 222; 322) opposing side walls, the first side wall abutting the bottom wall , and the second side wall movable relative to the utensil caddy between a first position, in opposition to the first side wall , and a second position, abutting the bottom wall ; a first set of utensil holders provided on the first side wall , and characterized by the fact that the automatic dishwasher further comprises a second set of utensil holders provided on the second side wall , wherein the bottom wall has a planar portion and a depression defined by a first and second angled wall , the depression forms a first set of cup seats and a second set of cup seats , wherein the second side wall overlies at least some of the first set of cup seats and does not overlie the second set of cup seats when in the second position. a tub defining a dish treating chamber ; a dish rack located within the dish treating chamber and comprising a bottom wall defining at least one plane; a utensil caddy , removably mounted to the dish rack , and comprising a periphery defining an interior with an open top , the periphery having at least first (120; 220; 320) and second (122; 222; 322) opposing side walls, the first side wall abutting the bottom wall , and the second side wall movable relative to the utensil caddy between a first position, in opposition to the first side wall , and a second position, abutting the bottom wall ; a first set of utensil holders provided on the first side wall , and characterized by the fact that the automatic dishwasher further comprises a second set of utensil holders provided on the second side wall , wherein the bottom wall has a planar portion and a depression defined by a first and second angled wall , the depression forms a first set of cup seats and a second set of cup seats , wherein the second side wall overlies at least some of the first set of cup seats and does not overlie the second set of cup seats when in the second position.
An apparatus for use in an eNodeB operable to perform resource allocations for beamforming reference signal, BRS, transmissions within a 5G wireless communication system, the apparatus comprising one or more processors and memory configured to: identify, at the eNodeB, a plurality of BRS antenna ports, APs, associated with one orthogonal frequency division multiplexing, OFDM, symbol, wherein the BRS APs are used to transmit a BRS from the eNodeB to a user equipment, UE, in the OFDM symbol; encode, at the eNodeB, an enhanced physical broadcast channel, xPBCH, and multiplex, at the eNodeB, the xPBCH, the BRS, a primary synchronization signal, PSS, a secondary synchronization signal, SSS, and an enhanced synchronization signal, ESS, in the OFDM symbol in a frequency division multiplexing, FDM, and/or a code division multiplexing, CDM, manner for transmission to the UE. identify, at the eNodeB, a plurality of BRS antenna ports, APs, associated with one orthogonal frequency division multiplexing, OFDM, symbol, wherein the BRS APs are used to transmit a BRS from the eNodeB to a user equipment, UE, in the OFDM symbol; encode, at the eNodeB, an enhanced physical broadcast channel, xPBCH, and multiplex, at the eNodeB, the xPBCH, the BRS, a primary synchronization signal, PSS, a secondary synchronization signal, SSS, and an enhanced synchronization signal, ESS, in the OFDM symbol in a frequency division multiplexing, FDM, and/or a code division multiplexing, CDM, manner for transmission to the UE.
An electronic device comprising: a housing including a front plate that faces a first direction and a rear plate that faces a second direction, which is opposite the first direction; a display panel configured to output a screen through the front plate ; a bracket disposed between the display panel and the rear plate , the bracket being configured to support internal components of the electronic device ; a flexible printed circuit board including a first area electrically connected to the display panel , and a second area extending from the first area and disposed between the display panel and the bracket ; a wireless charging structure disposed on one face of the second area or inside the second area , the wireless charging structure including a coil portion and transmission wires electrically connected to the coil portion; a magnetic plate disposed between the bracket and the flexible printed circuit board , and at least one area of the magnetic plate being disposed to face the wireless charging structure ; a main printed circuit board disposed between the bracket and the rear plate ; and a first connection structure at least partially disposed in the second area and electrically connecting the wireless charging structure to the main printed circuit board . a housing including a front plate that faces a first direction and a rear plate that faces a second direction, which is opposite the first direction; a display panel configured to output a screen through the front plate ; a bracket disposed between the display panel and the rear plate , the bracket being configured to support internal components of the electronic device ; a flexible printed circuit board including a first area electrically connected to the display panel , and a second area extending from the first area and disposed between the display panel and the bracket ; a wireless charging structure disposed on one face of the second area or inside the second area , the wireless charging structure including a coil portion and transmission wires electrically connected to the coil portion; a magnetic plate disposed between the bracket and the flexible printed circuit board , and at least one area of the magnetic plate being disposed to face the wireless charging structure ; a main printed circuit board disposed between the bracket and the rear plate ; and a first connection structure at least partially disposed in the second area and electrically connecting the wireless charging structure to the main printed circuit board .
A method comprising: obtaining a logical model based on network configuration data stored in a controller on a software-defined network, the logical model including a declarative representation of a configuration of objects associated with the software-defined network, the objects including at least one of one or more endpoint groups, one or more bridge domains, one or more contexts, or one or more tenants; defining rules corresponding to conditions of the objects according to a specification of the software-defined network; reading the logical model and for each of the objects, determining a respective class name associated with a respective one of the objects, at least one of the rules associated with the respective one of the objects, and a respective tenant name of the respective one of the objects; determining whether the configuration of each of the objects in the logical model violates the at least one of the rules associated with the respective one of the objects; and when the configuration of one of the objects violates the at least one of the rules associated with the respective one of the objects, detecting an error in the configuration. obtaining a logical model based on network configuration data stored in a controller on a software-defined network, the logical model including a declarative representation of a configuration of objects associated with the software-defined network, the objects including at least one of one or more endpoint groups, one or more bridge domains, one or more contexts, or one or more tenants; defining rules corresponding to conditions of the objects according to a specification of the software-defined network; reading the logical model and for each of the objects, determining a respective class name associated with a respective one of the objects, at least one of the rules associated with the respective one of the objects, and a respective tenant name of the respective one of the objects; determining whether the configuration of each of the objects in the logical model violates the at least one of the rules associated with the respective one of the objects; and when the configuration of one of the objects violates the at least one of the rules associated with the respective one of the objects, detecting an error in the configuration.
A method for the automated processing of workpiece surfaces by, for example, polishing, grinding or painting, in which at least one tool with an end effector, which is designed for the respective surface processing, is moved relative to a respective surface to be processed, wherein before, during and after processing in a processing region before, next to and after carrying out the respective processing in the direction of feed movement of the end effector, spatially resolved measurement signals, which represent the processing result currently achieved, are recorded and fed to an electronic evaluation and control unit using at least one sensor, which electronic evaluation and control unit is present on the respective end effector, wherein the electronic evaluation and control unit carries out a target/actual value comparison to determine whether a predetermined work result has been achieved or not, wherein the result of the target/actual value comparison causes the processing of the respective surface to terminate or parameters with which the respective tool is operated to be adjusted accordingly and the respective surface processing is repeated in the respective surface region with changed parameters or these parameters are adjusted during a further feed movement. before, during and after processing in a processing region before, next to and after carrying out the respective processing in the direction of feed movement of the end effector, spatially resolved measurement signals, which represent the processing result currently achieved, are recorded and fed to an electronic evaluation and control unit using at least one sensor, which electronic evaluation and control unit is present on the respective end effector, wherein the electronic evaluation and control unit carries out a target/actual value comparison to determine whether a predetermined work result has been achieved or not, wherein the result of the target/actual value comparison causes the processing of the respective surface to terminate or parameters with which the respective tool is operated to be adjusted accordingly and the respective surface processing is repeated in the respective surface region with changed parameters or these parameters are adjusted during a further feed movement.
A power circuit comprising: a generator ; a rectifier connected between the generator and a constant power load to provide a DC link voltage across the constant power load and a load resistance ; a DC link capacitor having a load capacitance and shunting the load resistance for smoothing the DC link voltage ; and a sensor disposed to measure an amplitude of a speed ripple in the generator ; characterized by a feedforward circuit connected to the sensor and to the generator , the feedforward circuit configured to determine a phase angle formed by the load resistance and the load capacitance of the DC link capacitor , calculate a voltage signal value based on the amplitude of the speed ripple and the determined phase angle , and adjust the DC link voltage according to the voltage signal value . a generator ; a rectifier connected between the generator and a constant power load to provide a DC link voltage across the constant power load and a load resistance ; a DC link capacitor having a load capacitance and shunting the load resistance for smoothing the DC link voltage ; and a sensor disposed to measure an amplitude of a speed ripple in the generator ; characterized by a feedforward circuit connected to the sensor and to the generator , the feedforward circuit configured to determine a phase angle formed by the load resistance and the load capacitance of the DC link capacitor , calculate a voltage signal value based on the amplitude of the speed ripple and the determined phase angle , and adjust the DC link voltage according to the voltage signal value .
A computer-implemented method of protecting, from a security threat, a computer-driven system having a processor host running an operating system in communication over a network with a plurality of electronic devices, wherein a set of protocols governs communications over the network between the processor and the devices, the method utilizing computer processes comprising: receiving from the operating system , the operating system running in a first environment that is virtualized , a driver call made to a specific driver, the driver call being generated by the operating system in response to a system call made by an application; interrupting transmission of the driver call to the specific driver; and in a series of paravirtualization processes, translating the driver call into a hyper call ; analyzing the hyper call according to a set of security rules to determine if a security threat exists; if the analyzing does not determine that a security threat exists, then transmitting the hyper call to the specific driver; and if the analyzing determines that a security threat exists, then performing a security process, characterised in that : the driver executes in a second environment distinct from the first environment. receiving from the operating system , the operating system running in a first environment that is virtualized , a driver call made to a specific driver, the driver call being generated by the operating system in response to a system call made by an application; interrupting transmission of the driver call to the specific driver; and in a series of paravirtualization processes, translating the driver call into a hyper call ; analyzing the hyper call according to a set of security rules to determine if a security threat exists; if the analyzing does not determine that a security threat exists, then transmitting the hyper call to the specific driver; and if the analyzing determines that a security threat exists, then performing a security process, characterised in that : the driver executes in a second environment distinct from the first environment. translating the driver call into a hyper call ; analyzing the hyper call according to a set of security rules to determine if a security threat exists; if the analyzing does not determine that a security threat exists, then transmitting the hyper call to the specific driver; and if the analyzing determines that a security threat exists, then performing a security process, characterised in that : the driver executes in a second environment distinct from the first environment.