mhurhangee/patent-ind-claim-en huggingface dataset:
A system , comprising: a. a heat source operable to provide an amount of energy to be used to cook a food item; and b. one or more processors communicatively coupled to the heat source , and operable, when executed, to: i. receive an indication of a requested cooking temperature; ii. receive a plurality of indications of measured temperature associated with the food item at different times; iii. determine an integral term based on differences between the requested cooking temperature and the measured temperatures; iv. determine a heat loss term based on the integral term; and v. determine an energy adjustment based on the heat loss term; c. wherein the heat source is further operable to modify the amount of energy provided by the heat source in accordance with the determined energy adjustment. a. a heat source operable to provide an amount of energy to be used to cook a food item; and b. one or more processors communicatively coupled to the heat source , and operable, when executed, to: i. receive an indication of a requested cooking temperature; ii. receive a plurality of indications of measured temperature associated with the food item at different times; iii. determine an integral term based on differences between the requested cooking temperature and the measured temperatures; iv. determine a heat loss term based on the integral term; and v. determine an energy adjustment based on the heat loss term; i. receive an indication of a requested cooking temperature; ii. receive a plurality of indications of measured temperature associated with the food item at different times; iii. determine an integral term based on differences between the requested cooking temperature and the measured temperatures; iv. determine a heat loss term based on the integral term; and v. determine an energy adjustment based on the heat loss term; c. wherein the heat source is further operable to modify the amount of energy provided by the heat source in accordance with the determined energy adjustment.
A compressor comprising a compressor housing , a fastening device arranged on the compressor housing , and a support device connected to the fastening device for a temperature sensor , wherein the support device is designed to press the temperature sensor against a wall (1.1) of the compressor housing , characterized in that the support device has at least two sections (3.1, 3.2) located on different sides of the temperature sensor , for repeated connection to the fastening device , wherein, when the compressor is used as intended, the temperature sensor is designed to be braced against the compressor housing from below.
A method comprising: receiving initialization sensor values from an agricultural machine after an initial startup of an unloading process; generating an estimated discharge based on the initialization sensor values ; receiving a weight sensor value from the agricultural machine after the initialization sensor values ; comparing the weight sensor value to a threshold value, the threshold value based on the estimated discharge ; determining that the weight sensor value is to be transmitted to an agricultural machine controller in response to the weight sensor value being below the threshold value ; and determining that the threshold value is to be transmitted to the agricultural machine controller in response to the weight sensor value being at or above the threshold value . receiving initialization sensor values from an agricultural machine after an initial startup of an unloading process; generating an estimated discharge based on the initialization sensor values ; receiving a weight sensor value from the agricultural machine after the initialization sensor values ; comparing the weight sensor value to a threshold value, the threshold value based on the estimated discharge ; determining that the weight sensor value is to be transmitted to an agricultural machine controller in response to the weight sensor value being below the threshold value ; and determining that the threshold value is to be transmitted to the agricultural machine controller in response to the weight sensor value being at or above the threshold value .
A method for deploying a virtualized network function using network edge computing, comprising: receiving , by a central virtualized network function component, "VNFC", first location information sent by a user terminal, wherein the central VNFC is a VNFC deployed in a central resource pool; and sending , by the central VNFC to a virtualized network function manager, "VNFM", a creation request message that is used to create an edge VNFC, to execute a deployment process of the edge VNFC, wherein the edge VNFC is a VNFC deployed in an edge resource pool, wherein the creation request message carries the first location information, the virtualized network function is completed by using the central VNFC and the edge VNFC, and the edge VNFC is configured based on the first location information. receiving , by a central virtualized network function component, "VNFC", first location information sent by a user terminal, wherein the central VNFC is a VNFC deployed in a central resource pool; and sending , by the central VNFC to a virtualized network function manager, "VNFM", a creation request message that is used to create an edge VNFC, to execute a deployment process of the edge VNFC, wherein the edge VNFC is a VNFC deployed in an edge resource pool, wherein the creation request message carries the first location information, the virtualized network function is completed by using the central VNFC and the edge VNFC, and the edge VNFC is configured based on the first location information.
A seal assembly of a gas turbine engine , comprising: a first engine component including a flange , the first engine component disposed between a first airflow path (S) and a second airflow path (C); a first seal disposed between the first airflow path (S) and the flange ; and a second seal disposed between the first airflow path (S) and the second airflow path (C), wherein the second seal is disposed in a series arrangement with the first seal , and the second seal mechanically supports the first seal , wherein the first engine component comprises a seal support , wherein the first seal is disposed on the seal support , characterised in that the second seal comprises a second seal support extending radially from the second seal , a radially outer surface of the second seal support is substantially flush with a radially outer surface of the seal support . a first engine component including a flange , the first engine component disposed between a first airflow path (S) and a second airflow path (C); a first seal disposed between the first airflow path (S) and the flange ; and a second seal disposed between the first airflow path (S) and the second airflow path (C), wherein the second seal is disposed in a series arrangement with the first seal , and the second seal mechanically supports the first seal , wherein the first engine component comprises a seal support , wherein the first seal is disposed on the seal support , characterised in that the second seal comprises a second seal support extending radially from the second seal , a radially outer surface of the second seal support is substantially flush with a radially outer surface of the seal support .
A hemodialysis machine comprising: a blood pump configured to pump blood to and from a patient; a solar panel configured to receive light energy and generate electricity; characterized by an atmospheric water generator configured to be powered by the generated electricity and configured to extract water from ambient air, wherein the extracted water is used to generate dialysate; and a dialyzer configured to receive the blood and the dialysate generated using the water extracted from ambient air, remove toxins from the blood, and provide filtered blood to the patient, and optionally wherein the solar panel powers the hemodialysis machine. a blood pump configured to pump blood to and from a patient; a solar panel configured to receive light energy and generate electricity; characterized by an atmospheric water generator configured to be powered by the generated electricity and configured to extract water from ambient air, wherein the extracted water is used to generate dialysate; and a dialyzer configured to receive the blood and the dialysate generated using the water extracted from ambient air, remove toxins from the blood, and provide filtered blood to the patient, and optionally wherein the solar panel powers the hemodialysis machine.
A method for operating a textile machine , particularly in the form of a comber preparation machine or spinning machine, the textile machine receiving fiber material from containers for processing, at least one parameter of the fiber material present in the corresponding container being determined by means of a container identifier on the containers , and the containers being located at at least one inlet location of the textile machine for feeding in the fiber material , and a place identifier is associated with at least one inlet location , and that the textile machine does not begin processing the fiber material from the corresponding container at the inlet location until comparing the parameters of the fiber material present in the corresponding container to the location identifier indicates that the fiber material intended for the inlet location is present in the container characterized in that the location identifier and/or the container identifier is captured by means of a mobile reading device , and/or that the container identifier is detected by means of a location reading device disposed on the textile machine and particularly associated with the inlet location , and/or that the container identifier is captured by means of a machine reading device , wherein the container identifier of the container in which the processed fiber material is or has been laid down is preferably captured by means of the machine reading device , and comparing the parameter to the location identifier is performed by a higher-level control system , by the mobile reading device , and/or by the location reading device . the textile machine receiving fiber material from containers for processing, at least one parameter of the fiber material present in the corresponding container being determined by means of a container identifier on the containers , and the containers being located at at least one inlet location of the textile machine for feeding in the fiber material , and a place identifier is associated with at least one inlet location , and that the textile machine does not begin processing the fiber material from the corresponding container at the inlet location until comparing the parameters of the fiber material present in the corresponding container to the location identifier indicates that the fiber material intended for the inlet location is present in the container characterized in that the location identifier and/or the container identifier is captured by means of a mobile reading device , and/or that the container identifier is detected by means of a location reading device disposed on the textile machine and particularly associated with the inlet location , and/or that the container identifier is captured by means of a machine reading device , wherein the container identifier of the container in which the processed fiber material is or has been laid down is preferably captured by means of the machine reading device , and comparing the parameter to the location identifier is performed by a higher-level control system , by the mobile reading device , and/or by the location reading device .
A method for processing access network information of User Equipment, UE, comprising: receiving, by a Policy and Charging Enforcement Function, PCEF, a request from a Policy and Charging Rules Function, PCRF, wherein the received request is used for requesting to report the access network information (S402); judging, by the PCEF, whether an access network where the UE is located supports reporting of the access network information or not (S404); and when a judgment result is that the access network where the UE is located does not support the reporting of the access network information, reporting, by the PCEF, to the PCRF, second indication information indicating a failure of reporting the access network information, wherein the PCRF sends the second indication information to an Application Function, AF (S406); wherein the PCEF judges whether the access network where the UE is located supports the reporting of the access network information or not according to a type of an Internet Protocol Connectivity Access Network, IP-CAN. receiving, by a Policy and Charging Enforcement Function, PCEF, a request from a Policy and Charging Rules Function, PCRF, wherein the received request is used for requesting to report the access network information (S402); judging, by the PCEF, whether an access network where the UE is located supports reporting of the access network information or not (S404); and when a judgment result is that the access network where the UE is located does not support the reporting of the access network information, reporting, by the PCEF, to the PCRF, second indication information indicating a failure of reporting the access network information, wherein the PCRF sends the second indication information to an Application Function, AF (S406); wherein the PCEF judges whether the access network where the UE is located supports the reporting of the access network information or not according to a type of an Internet Protocol Connectivity Access Network, IP-CAN.
Method for detecting a flame event by means of a detector system , wherein the detector system has a radiation detector and at least one camera detector and monitors a detection area for the occurrence of flame events by means of the radiation detector and the at least one camera detector , a) comprising the following steps: determining at least one exclusion area in the detection area of the detector system , b) evaluating the radiation detector in order to identify a radiation event , characterized by the following steps: c) if a radiation event identified in step b) is present, carrying out a first evaluation of the at least one camera detector in order to identify a camera indication , d) if a camera indication identified in step c) is present, carrying out a check in order to determine whether the camera indication is arranged outside the at least one exclusion area determined in step a), and e) if there is a positive result of the check in step d), detecting a flame event in the detection area outside the at least one exclusion area . a) comprising the following steps: determining at least one exclusion area in the detection area of the detector system , b) evaluating the radiation detector in order to identify a radiation event , c) if a radiation event identified in step b) is present, carrying out a first evaluation of the at least one camera detector in order to identify a camera indication , d) if a camera indication identified in step c) is present, carrying out a check in order to determine whether the camera indication is arranged outside the at least one exclusion area determined in step a), and e) if there is a positive result of the check in step d), detecting a flame event in the detection area outside the at least one exclusion area .
A method of surface treatment of an electrode, the method comprising: cleaning a surface of an electrode using dry ice blasting; characterized in that the electrode is a lithium metal negative electrode; and in the dry ice blasting, fluorine gas is mixed with liquefied carbonic acid or dry ice pellets and then sprayed. cleaning a surface of an electrode using dry ice blasting; characterized in that the electrode is a lithium metal negative electrode; and in the dry ice blasting, fluorine gas is mixed with liquefied carbonic acid or dry ice pellets and then sprayed.
An encoder apparatus comprising a scale , a protective housing and a readhead assembly comprising a scale signal receiver , the scale and the scale signal receiver being located within said protective housing which is configured to protect them from contamination located outside the protective housing, the scale signal receiver and the protective housing being relatively moveable with respect to each other, the protective housing comprising a seal through which the scale signal receiver can be connected to a part outside the protective housing , in which the arrangement of the scale signal receiver inside the protective housing is independent of the scale and protective housing , and in which the scale signal receiver comprises at least one vibration control device comprising at least one member configured to vibrate independently of the rest of the scale signal receiver and configured to reduce the susceptibility of the scale signal receiver of the readhead assembly to vibrations.
A method comprising: detecting, by at least a processor of a network node, received physical random access channel signatures, by performing the steps of, computing a correlation power profile comprising correlation power profile values for the received physical random access channel signatures (S300), sorting the correlation power profile values into sorted correlation power profile values (S300), for each sorted correlation power profile value: computing a weight factor based on a normalized physical random access channel detection threshold (S302), if the sorted correlation power profile value is greater than the weight factor times a sum of the sorted correlation power profile values preceding the sorted correlation power profile value, selecting the sorted correlation power profile value and sorted correlation power profile values following the sorted correlation power profile value as outlier peaks (S306), mapping the outlier peaks to the received physical random access channel signatures (S308). detecting, by at least a processor of a network node, received physical random access channel signatures, by performing the steps of, computing a correlation power profile comprising correlation power profile values for the received physical random access channel signatures (S300), sorting the correlation power profile values into sorted correlation power profile values (S300), for each sorted correlation power profile value: computing a weight factor based on a normalized physical random access channel detection threshold (S302), if the sorted correlation power profile value is greater than the weight factor times a sum of the sorted correlation power profile values preceding the sorted correlation power profile value, selecting the sorted correlation power profile value and sorted correlation power profile values following the sorted correlation power profile value as outlier peaks (S306), mapping the outlier peaks to the received physical random access channel signatures (S308). computing a weight factor based on a normalized physical random access channel detection threshold (S302), if the sorted correlation power profile value is greater than the weight factor times a sum of the sorted correlation power profile values preceding the sorted correlation power profile value, selecting the sorted correlation power profile value and sorted correlation power profile values following the sorted correlation power profile value as outlier peaks (S306), mapping the outlier peaks to the received physical random access channel signatures (S308).
A camera assembly couplable to and separable from a camera external package and having an extended function when coupled to the camera external package, the camera assembly comprising: an image sensor configured to obtain an image of an object through light which passes through a lens ; an image signal processor configured to process the obtained image of the object; a circuit board on which the image sensor and the image signal processor are mounted; a camera case configured to accommodate the image sensor, the image signal processor, and the circuit board; and an intermediate connector formed on one side of the camera case to be electrically connected to the circuit board and electrically coupled to the camera external package when the camera external package and the camera assembly are coupled, to simultaneously supply power to the circuit board through the camera external package and transmit and receive data with the circuit board; a heat sink in contact with the circuit board to discharge heat generated by the circuit board; and characterized in that the camera assembly further comprising: an insert in contact with the heat sink and formed on the one side of the camera case to come into contact with a heat transfer member, which is formed on one side of the camera external package, and discharge the generated heat toward the camera external package when the camera external package and the camera assembly are coupled. an image sensor configured to obtain an image of an object through light which passes through a lens ; an image signal processor configured to process the obtained image of the object; a circuit board on which the image sensor and the image signal processor are mounted; a camera case configured to accommodate the image sensor, the image signal processor, and the circuit board; and an intermediate connector formed on one side of the camera case to be electrically connected to the circuit board and electrically coupled to the camera external package when the camera external package and the camera assembly are coupled, to simultaneously supply power to the circuit board through the camera external package and transmit and receive data with the circuit board; a heat sink in contact with the circuit board to discharge heat generated by the circuit board; and characterized in that the camera assembly further comprising: an insert in contact with the heat sink and formed on the one side of the camera case to come into contact with a heat transfer member, which is formed on one side of the camera external package, and discharge the generated heat toward the camera external package when the camera external package and the camera assembly are coupled.
A monoclonal antibody which comprises a heavy chain constant region which is IgG2 wherein valine at position 234, glycine at position 237 and proline at position 331 are at least substituted with alanine, alanine and serine, respectively (numbering is based on the EU index of Kabat et al ) ; has an agonist activity; and binds to human CD40, comprising a heavy chain variable region comprising CDR1, CDR2 and CDR3 represented by SEQ ID NOs: 6, 8 and 10, respectively, and a light chain variable region comprising CDR1, CDR2 and CDR3 represented by SEQ ID NOs:16, 18 and 20, respectively.