mhurhangee/patent-ind-claim-en huggingface dataset:
A power converter assembly for an electrical power system connected to a power grid , the power converter assembly comprising: a rotor-side converter coupled to a generator rotor of a generator of the electrical power system ; a line-side converter electrically coupled to rotor-side converter via a DC link , the line-side converter coupled to the power grid ; at least one sensor configured to monitor a voltage parameter of the DC link ; and, a dynamic brake assembly electrically coupled to the DC link , the dynamic brake assembly comprising a plurality of switching devices connected in parallel and a plurality of inductors electrically coupled between the plurality of switching devices , wherein, when the voltage parameter is at or above a voltage threshold, the dynamic brake assembly is configured to turn on such that the plurality of inductors receives at least part of a load generated by the power converter assembly ; wherein the plurality of switching devices is arranged in a plurality of pairs of switching devices connected in parallel and each of the plurality of inductors are connected to nodes between first and second switching devices of each of the plurality of pairs of switching devices .; and wherein the dynamic brake assembly further comprises a resistor electrically coupled to a node positioned between the plurality of inductors . a rotor-side converter coupled to a generator rotor of a generator of the electrical power system ; a line-side converter electrically coupled to rotor-side converter via a DC link , the line-side converter coupled to the power grid ; at least one sensor configured to monitor a voltage parameter of the DC link ; and, a dynamic brake assembly electrically coupled to the DC link , the dynamic brake assembly comprising a plurality of switching devices connected in parallel and a plurality of inductors electrically coupled between the plurality of switching devices , wherein, when the voltage parameter is at or above a voltage threshold, the dynamic brake assembly is configured to turn on such that the plurality of inductors receives at least part of a load generated by the power converter assembly ; wherein the plurality of switching devices is arranged in a plurality of pairs of switching devices connected in parallel and each of the plurality of inductors are connected to nodes between first and second switching devices of each of the plurality of pairs of switching devices .; and wherein the dynamic brake assembly further comprises a resistor electrically coupled to a node positioned between the plurality of inductors .
A method for controlling a crane , comprising: a) forming video image at a lifting point of a crane; characterized by : b) determining a current and a future position of a lifting member or of a load with respect to the formed video image; c) combining to the formed video image an indication of the future position of the lifting member or of the load; d) performing repeatedly again steps b) and c) for real time indicating of the future position of the lifting member or of the load; e) determining a limitation of the trajectory of the crane in relation to the formed video image; and f) combining to the formed video image an indication of said limitation of the trajectory of the crane . a) forming video image at a lifting point of a crane; b) determining a current and a future position of a lifting member or of a load with respect to the formed video image; c) combining to the formed video image an indication of the future position of the lifting member or of the load; d) performing repeatedly again steps b) and c) for real time indicating of the future position of the lifting member or of the load; e) determining a limitation of the trajectory of the crane in relation to the formed video image; and f) combining to the formed video image an indication of said limitation of the trajectory of the crane .
An automated external defibrillator (AED) for use during cardiopulmonary resuscitation (CPR) comprising: an input of an ECG signal; a user interface having at least one of an aural instruction output and a visual display; a first ECG analyzer in communication with the input and operable to determine a shockable cardiac rhythm during a hands-off period characterized by no presence of CPR-related signal noise artifact from the input; a second ECG analyzer in communication with the input and operable to determine a shockable cardiac rhythm in the presence of CPR-related signal noise artifact from the input; a processor in communication with the user interface, the first ECG analyzer and the second ECG analyzer, the processor operable to execute software instructions to reduce a duration of the hands-off period only if both of the first and second ECG analyzers determine that a shockable cardiac rhythm is not present, wherein the processor is further operable to execute software instructions to issue a user prompt to end the hands-off period and to resume CPR at the end of the reduced-duration hands-off period. an input of an ECG signal; a user interface having at least one of an aural instruction output and a visual display; a first ECG analyzer in communication with the input and operable to determine a shockable cardiac rhythm during a hands-off period characterized by no presence of CPR-related signal noise artifact from the input; a second ECG analyzer in communication with the input and operable to determine a shockable cardiac rhythm in the presence of CPR-related signal noise artifact from the input; a processor in communication with the user interface, the first ECG analyzer and the second ECG analyzer, the processor operable to execute software instructions to reduce a duration of the hands-off period only if both of the first and second ECG analyzers determine that a shockable cardiac rhythm is not present, wherein the processor is further operable to execute software instructions to issue a user prompt to end the hands-off period and to resume CPR at the end of the reduced-duration hands-off period.
A method performed by a transmitter for transmitting overlaid and underlaid signals to a narrowband receiver and a wideband receiver , wherein the transmitter and the narrowband and wideband receivers operate in a wireless communications network ; and wherein the method comprises: - generating a narrowband signal that carries data for transmission to the narrowband receiver ; - generating a wideband signal, that carries data for transmission to the wideband receiver ; - overlaying the generated narrowband signal over the generated wideband signal, wherein the generated narrowband signal is referred to as an overlaid narrowband signal and the generated wideband signal is referred to as an underlaid wideband signal; and - transmitting , to the narrowband receiver and the wideband receiver , the overlaid narrowband signal and the underlaid wideband signal, respectively; wherein the method is characterized in that the narrowband signal is generated by: - mapping user code bits of the data to a first set of binary symbols; - generating a second set of binary symbols by precoding the first set of binary symbols; - rotating the binary symbols of the second set by 90 degrees resulting in rotated constellation symbols; and - filtering the rotated constellation symbols by means of a pulse shaping filter. - generating a narrowband signal that carries data for transmission to the narrowband receiver ; - generating a wideband signal, that carries data for transmission to the wideband receiver ; - overlaying the generated narrowband signal over the generated wideband signal, wherein the generated narrowband signal is referred to as an overlaid narrowband signal and the generated wideband signal is referred to as an underlaid wideband signal; and - transmitting , to the narrowband receiver and the wideband receiver , the overlaid narrowband signal and the underlaid wideband signal, respectively; - mapping user code bits of the data to a first set of binary symbols; - generating a second set of binary symbols by precoding the first set of binary symbols; - rotating the binary symbols of the second set by 90 degrees resulting in rotated constellation symbols; and - filtering the rotated constellation symbols by means of a pulse shaping filter.
A computer-implemented method for detecting area defects when profiling spatial distribution of biomarkers using an image analysis system, comprising: for each pixel in a first image, determining a comparison region; performing a correlation between each comparison region and a corresponding region of a second image; wherein the first image is a composite image generated using a plurality of acquired images depicting a sample stained using a first labeling agent, wherein the second image is a composite image generated using a plurality of acquired images acquired depicting the sample stained using a second labeling agent, generating a score for each pixel in the first image based on the respective correlation between the respective comparison region associated with each pixel and the corresponding region of the second image, wherein the score for each pixel corresponds to a likelihood of a defect within the first image at the respective pixel, wherein each region comprises a square array of pixels centered about a respective pixel and wherein the correlation is a Pearson product moment correlation between the pixels of the respective regions of the first and second images, applying a threshold to each pixel of the first image based on the respective score for each pixel; and based on the application of the threshold, categorizing each pixel as being acceptable or not acceptable for profiling. for each pixel in a first image, determining a comparison region; performing a correlation between each comparison region and a corresponding region of a second image; wherein the first image is a composite image generated using a plurality of acquired images depicting a sample stained using a first labeling agent, wherein the second image is a composite image generated using a plurality of acquired images acquired depicting the sample stained using a second labeling agent, generating a score for each pixel in the first image based on the respective correlation between the respective comparison region associated with each pixel and the corresponding region of the second image, wherein the score for each pixel corresponds to a likelihood of a defect within the first image at the respective pixel, wherein each region comprises a square array of pixels centered about a respective pixel and wherein the correlation is a Pearson product moment correlation between the pixels of the respective regions of the first and second images, applying a threshold to each pixel of the first image based on the respective score for each pixel; and based on the application of the threshold, categorizing each pixel as being acceptable or not acceptable for profiling.
Method for providing map data for at least two types of zones, comprising: providing first map data for the two types of zones, wherein the zones are described by regions; providing second map data for one of the types of zones, wherein the one type is described by the listing of road sections; providing a map that contains all road sections and their position; characterized by : checking, by way of the map, whether the regions specified in the first map data for zones of the one type match the road sections specified in the second map data for zones of the one type; in the event of absence of a match: changing the zones of the one type in the first map data; providing the first, possibly corrected map data. providing first map data for the two types of zones, wherein the zones are described by regions; providing second map data for one of the types of zones, wherein the one type is described by the listing of road sections; providing a map that contains all road sections and their position; characterized by : checking, by way of the map, whether the regions specified in the first map data for zones of the one type match the road sections specified in the second map data for zones of the one type; in the event of absence of a match: changing the zones of the one type in the first map data; providing the first, possibly corrected map data. checking, by way of the map, whether the regions specified in the first map data for zones of the one type match the road sections specified in the second map data for zones of the one type; in the event of absence of a match: changing the zones of the one type in the first map data; providing the first, possibly corrected map data.
Arrangement for guiding fish between a first lower situated body of water and a second higher situated body of water, the arrangement comprising a housing comprising: - a first opening and a second opening , wherein in use the second opening is situated higher than the first opening ; and - a water guide which connects the first opening to the second opening for guiding a flow of water from the second opening to the first opening ; - a base , arranged to in use be provided under a water level of the first body of water; wherein the water guide in use provides a flow trajectory for the flow of water around an axis parallel to the gravity vector, the housing further comprising: - an inner housing part , the water guide being provided between the housing and the inner housing part , at least part of the inner housing part and at least part of the base marking out a basin for containing a volume of water which is relatively sheltered from the water flow which flows from the second opening to the first opening characterized in that the first opening opens in the basin . - a first opening and a second opening , wherein in use the second opening is situated higher than the first opening ; and - a water guide which connects the first opening to the second opening for guiding a flow of water from the second opening to the first opening ; - a base , arranged to in use be provided under a water level of the first body of water; wherein the water guide in use provides a flow trajectory for the flow of water around an axis parallel to the gravity vector, the housing further comprising: - an inner housing part , the water guide being provided between the housing and the inner housing part , at least part of the inner housing part and at least part of the base marking out a basin for containing a volume of water which is relatively sheltered from the water flow which flows from the second opening to the first opening characterized in that the first opening opens in the basin .
An electronic apparatus comprising: a memory configured to store waveform information of a signal received from a user's body and authentication key information corresponding to a predetermined function; a transceiver configured to receive a signal from an external apparatus using the user's body as a communication medium; and at least one processor configured to: obtain key information from the received signal; confirm whether or not each of the obtained key information and a waveform of the received signal corresponds to each of the stored authentication key information and the stored waveform information, and perform the predetermined function depending on the confirmation result, wherein the at least one processor is further configured to, when the transceiver receives a key registration signal through the user's body: generate waveform information on the basis of a waveform of the key registration signal; store the waveform information in the memory , and store key information obtained from the key registration signal as the authentication key information corresponding to the predetermined function in the memory . a memory configured to store waveform information of a signal received from a user's body and authentication key information corresponding to a predetermined function; a transceiver configured to receive a signal from an external apparatus using the user's body as a communication medium; and at least one processor configured to: obtain key information from the received signal; confirm whether or not each of the obtained key information and a waveform of the received signal corresponds to each of the stored authentication key information and the stored waveform information, and perform the predetermined function depending on the confirmation result, obtain key information from the received signal; confirm whether or not each of the obtained key information and a waveform of the received signal corresponds to each of the stored authentication key information and the stored waveform information, and perform the predetermined function depending on the confirmation result, wherein the at least one processor is further configured to, when the transceiver receives a key registration signal through the user's body: generate waveform information on the basis of a waveform of the key registration signal; store the waveform information in the memory , and store key information obtained from the key registration signal as the authentication key information corresponding to the predetermined function in the memory . generate waveform information on the basis of a waveform of the key registration signal; store the waveform information in the memory , and store key information obtained from the key registration signal as the authentication key information corresponding to the predetermined function in the memory .
An xEV electric vehicle battery system , comprising: - one or more battery module comprising electrochemical cells ; - a battery system housing , which comprises a bottom, and a cover for coupling to the battery system housing with fasteners, the battery system housing and the cover configured to enclose the one or more battery module ; - a thermal management system comprising a heat transfer device which includes a plurality of inbound passageways and a plurality of outbound passageways , wherein a thermal management fluid is configured to be routed into the heat transfer device through the inbound passageways and to be routed out of the heat transfer device through the outbound passageways , wherein the thermal management system is provided on an outside surface of the bottom of the battery system housing ; - a thermal interface in contact with the electrochemical cells and an inside surface of the bottom of the battery system housing wherein the heat transfer device comprises a heat sink , in which the inbound passageways and the outbound passageways are provided, and wherein the thermal management system is provided completely external to the battery system housing , and characterized in that a second thermal interface is disposed between the heat sink and the outside surface of the bottom of the battery system housing . - one or more battery module comprising electrochemical cells ; - a battery system housing , which comprises a bottom, and a cover for coupling to the battery system housing with fasteners, the battery system housing and the cover configured to enclose the one or more battery module ; - a thermal management system comprising a heat transfer device which includes a plurality of inbound passageways and a plurality of outbound passageways , wherein a thermal management fluid is configured to be routed into the heat transfer device through the inbound passageways and to be routed out of the heat transfer device through the outbound passageways , wherein the thermal management system is provided on an outside surface of the bottom of the battery system housing ; - a thermal interface in contact with the electrochemical cells and an inside surface of the bottom of the battery system housing
A hinge mechanism for spectacles comprising a frame front and two side bars, the frame front comprises two side sections for attaching the side bars to the frame front, each side section being in the form of a bent metal plate and each side section comprising a connection hole and a notch , and each side bar comprises an axial groove , the axial groove divides an upper end of the side bar in an outside elastic part and an inside elastic part , - the outside elastic part and the inside elastic part both generate a spring force working towards the axial groove , - the outside elastic part of the side bar is engaging the connection hole of the side section , and - the inside elastic part of the side bar is engaging the notch of the side section , - the spring force of the outside elastic part is pressuring the outside elastic part against the side of the connection hole , and - the spring force of the inside elastic part is pressuring the inside elastic part against the notch , - the outside elastic part comprises a connection hook , and the connection hook is engaging the connection hole in the side section, preventing the outside elastic part from sliding out of the connection hole . - the outside elastic part and the inside elastic part both generate a spring force working towards the axial groove , - the outside elastic part of the side bar is engaging the connection hole of the side section , and - the inside elastic part of the side bar is engaging the notch of the side section , - the spring force of the outside elastic part is pressuring the outside elastic part against the side of the connection hole , and - the spring force of the inside elastic part is pressuring the inside elastic part against the notch , - the outside elastic part comprises a connection hook , and the connection hook is engaging the connection hole in the side section, preventing the outside elastic part from sliding out of the connection hole .
A method for starting an engine using an integrated starter , the integrated starter comprising a starter air valve and an air turbine starter , the method comprising: receiving , at a controller , a plurality of signals indicative of a plurality of parameters comprising at least a temperature and an altitude ; determining , at the controller , an initial start setting for the starter air valve based on a data structure stored in the controller that associates a given altitude and a given temperature to an initial start setting ; and providing , by the controller , one or more control signals to adjust a position of the starter air valve based at least in part on the initial start setting , wherein the position of the starter air valve regulates the flow of fluid into the air turbine starter. receiving , at a controller , a plurality of signals indicative of a plurality of parameters comprising at least a temperature and an altitude ; determining , at the controller , an initial start setting for the starter air valve based on a data structure stored in the controller that associates a given altitude and a given temperature to an initial start setting ; and providing , by the controller , one or more control signals to adjust a position of the starter air valve based at least in part on the initial start setting , wherein the position of the starter air valve regulates the flow of fluid into the air turbine starter.