mhurhangee/ep-ind-claims huggingface dataset:
A method for switching coordinator in a personal area network, PAN, including a first PAN coordinator, a first priority PAN coordinator and at least one device, the method is performed by the first PAN coordinator and comprises: transmitting a request for switching at least one device (104a, 104b) present in a network session to the first priority PAN coordinator, wherein the request includes the number of devices that are connected to the first PAN coordinator and are intended to be switched to the first priority PAN coordinator as a requirement for establishing capability; receiving a response corresponding to the request from the first priority PAN coordinator, transmitting an acknowledgement on receiving the response from the first priority PAN coordinator; determining whether the first priority PAN coordinator is capable of supporting the at least one device (104a, 104b); transmitting identification information of a new coordinator determined based on a priority and the capability of the new coordinator to support the at least one device, to the at least one device (104a, 104b) associated with the first PAN coordinator; and releasing an association between the first PAN coordinator and the at least one device and switching, when the first priority PAN coordinator is capable of supporting the at least one device, a network session of the at least one device with the first priority PAN coordinator as the new coordinator to facilitate establishment of the network session with the new coordinator. transmitting a request for switching at least one device (104a, 104b) present in a network session to the first priority PAN coordinator, wherein the request includes the number of devices that are connected to the first PAN coordinator and are intended to be switched to the first priority PAN coordinator as a requirement for establishing capability; receiving a response corresponding to the request from the first priority PAN coordinator, transmitting an acknowledgement on receiving the response from the first priority PAN coordinator; determining whether the first priority PAN coordinator is capable of supporting the at least one device (104a, 104b); transmitting identification information of a new coordinator determined based on a priority and the capability of the new coordinator to support the at least one device, to the at least one device (104a, 104b) associated with the first PAN coordinator; and releasing an association between the first PAN coordinator and the at least one device and switching, when the first priority PAN coordinator is capable of supporting the at least one device, a network session of the at least one device with the first priority PAN coordinator as the new coordinator to facilitate establishment of the network session with the new coordinator.
A method of diagnosis of operation of a machine tool (10, 100) comprising one or more axes (X, Y, Z) moved by one or more actuators (101, 102, 104) and at least one sensor coupled to said machine tool (10, 100), said method comprising operations of: - generating a programming sequence (P; P', P") of movement of the axes (X, Y, Z) of said machine tool (10, 100); - controlling the movement of the axes (X, Y, Z) of said machine tool (10, 100) according to said programming sequence (P; P', P"); - receiving a read-out signal of said at least one sensor coupled to said machine tool (10, 100); and - processing said read-out signal of said at least one sensor coupled to said machine tool (10, 100), said operation of processing said read-out signal comprising processing a response (Sf) of said machine tool (10, 100) to said at least one single impulsive variation (1200a, 1200b, D), said operation of processing said read-out signal comprising an artificial-neural-network processing via one or more artificial neural networks (206, 2060) configured for analysing operating profiles, in particular one or more signals indicative of the status of the machine tool, in said read-out signal, said method being characterized in that said programming sequence (P; P', P") comprises instructions that are apt to apply at least one single impulsive variation (1200a, 1200b, D) of a kinematic quantity (v, ac) with respect to one or more actuators (101, 102, 104). - generating a programming sequence (P; P', P") of movement of the axes (X, Y, Z) of said machine tool (10, 100); - controlling the movement of the axes (X, Y, Z) of said machine tool (10, 100) according to said programming sequence (P; P', P"); - receiving a read-out signal of said at least one sensor coupled to said machine tool (10, 100); and - processing said read-out signal of said at least one sensor coupled to said machine tool (10, 100), said operation of processing said read-out signal comprising processing a response (Sf) of said machine tool (10, 100) to said at least one single impulsive variation (1200a, 1200b, D), said operation of processing said read-out signal comprising an artificial-neural-network processing via one or more artificial neural networks (206, 2060) configured for analysing operating profiles, in particular one or more signals indicative of the status of the machine tool, in said read-out signal, said method being characterized in that said programming sequence (P; P', P") comprises instructions that are apt to apply at least one single impulsive variation (1200a, 1200b, D) of a kinematic quantity (v, ac) with respect to one or more actuators (101, 102, 104).
A method of operating a blast furnace installation comprising a top gas recycle blast furnace generating blast furnace gas, comprising the steps of: a. decarbonating the blast furnace gas so as to obtain a CO 2 -enriched rich tail gas stream and a decarbonated blast furnace gas stream containing not more than 3%vol CO 2, b. transforming a hydrocarbon-containing gaseous fuel not generated by the blast furnace to generate a transformed gas stream containing at least 70%vol of CO and H 2 in total, preferably at least 80%vol and more preferably at least 90%vol, and at most 7%vol of hydrocarbon, preferably at most 6%vol, c. producing a low-heating-value gaseous fuel having a heating value of from 2.8 to 7.0 MJ/Nm 3 and preferably from 5.5 to 6.0 MJ/Nm 3 and containing (i) a portion of the tail gas stream and (ii) at least a first portion of the transformed gas stream (15, 18) and using said low-heating-value gaseous fuel for heating hot stoves, d. heating at least 70%vol of the decarbonated blast furnace gas stream in the hot stoves to a temperature between 700°C and 1300°C, preferably between 850°C and 1000°C and more preferably between 880°C and 920°C, to generate heated decarbonated blast furnace gas (21, 29) and e. injecting the heated decarbonated blast furnace gas (21, 29) into the blast furnace. a. decarbonating the blast furnace gas so as to obtain a CO 2 -enriched rich tail gas stream and a decarbonated blast furnace gas stream containing not more than 3%vol CO 2, b. transforming a hydrocarbon-containing gaseous fuel not generated by the blast furnace to generate a transformed gas stream containing at least 70%vol of CO and H 2 in total, preferably at least 80%vol and more preferably at least 90%vol, and at most 7%vol of hydrocarbon, preferably at most 6%vol, c. producing a low-heating-value gaseous fuel having a heating value of from 2.8 to 7.0 MJ/Nm 3 and preferably from 5.5 to 6.0 MJ/Nm 3 and containing (i) a portion of the tail gas stream and (ii) at least a first portion of the transformed gas stream (15, 18) and using said low-heating-value gaseous fuel for heating hot stoves, d. heating at least 70%vol of the decarbonated blast furnace gas stream in the hot stoves to a temperature between 700°C and 1300°C, preferably between 850°C and 1000°C and more preferably between 880°C and 920°C, to generate heated decarbonated blast furnace gas (21, 29) and e. injecting the heated decarbonated blast furnace gas (21, 29) into the blast furnace.
An input-output circuit of an electronic chip, comprising a device comprising: - an input terminal of a core of the chip; - an output terminal of the core of the chip; - a levelling circuit comprising a first buffer circuit, an output of which is connected to the input terminal, and a second buffer circuit, an input of which is connected to the output terminal, an input of the first buffer circuit and an output of the second buffer circuit being interconnected through a common connection node connected to a connection pad of the chip; and - a protective circuit comprising, in series: a first P-type MOS transistor, a source of which is connected to the pad; a second N-type MOS transistor, connected to the first transistor; and a third N-type MOS transistor, connected to the second transistor, said third transistor being controlled by a digital signal applied to a terminal of the chip, wherein the gate of the first transistor and the gate of the second transistor are interconnected and intended to receive a supply potential of the electronic chip. - an input terminal of a core of the chip; - an output terminal of the core of the chip; - a levelling circuit comprising a first buffer circuit, an output of which is connected to the input terminal, and a second buffer circuit, an input of which is connected to the output terminal, an input of the first buffer circuit and an output of the second buffer circuit being interconnected through a common connection node connected to a connection pad of the chip; and - a protective circuit comprising, in series: a first P-type MOS transistor, a source of which is connected to the pad; a second N-type MOS transistor, connected to the first transistor; and a third N-type MOS transistor, connected to the second transistor, said third transistor being controlled by a digital signal applied to a terminal of the chip, a first P-type MOS transistor, a source of which is connected to the pad; a second N-type MOS transistor, connected to the first transistor; and a third N-type MOS transistor, connected to the second transistor, said third transistor being controlled by a digital signal applied to a terminal of the chip,
Method for generating radar reflection points comprising the steps of: providing (S10, S12) a plurality of predefined radar reflection points of at least one first object detected by a radar and at least one first scenario description describing a first environment related to the detected first object; converting the predefined radar reflection points into at least one first power distribution pattern image related to a distribution of a power returning from the detected first object; training a model based on the first power distribution pattern image and the first scenario description; providing at least one second scenario description describing a second environment related to a second object; generating at least one second power distribution pattern image related to a distribution of a power returning from the second object based on the trained model and the second scenario description, wherein the step of generating the at least one second power distribution pattern image is in addition based on a noise value; and sampling the second power distribution pattern image. providing (S10, S12) a plurality of predefined radar reflection points of at least one first object detected by a radar and at least one first scenario description describing a first environment related to the detected first object; converting the predefined radar reflection points into at least one first power distribution pattern image related to a distribution of a power returning from the detected first object; training a model based on the first power distribution pattern image and the first scenario description; providing at least one second scenario description describing a second environment related to a second object; generating at least one second power distribution pattern image related to a distribution of a power returning from the second object based on the trained model and the second scenario description, wherein the step of generating the at least one second power distribution pattern image is in addition based on a noise value; and sampling the second power distribution pattern image.
A method of a first device, comprising: based on a first short distance communication mode, receiving respective connection information and respective authentication information broadcasted from each of a plurality of external devices, the respective authentication information for identifying whether the each of the plurality of external devices is controllable by the first device; based on the respective authentication information, attempting to authenticate the each of the plurality of external devices; based on that a portion of the plurality of external devices is authenticated as controllable by the first device, displaying information related to the portion of the plurality of external devices on a portion of an execution screen of a first application, the portion of the plurality of external devices including a second device; based on the displayed information related to the portion of the plurality of external devices, receiving a user input for selecting the second device among the portion of the plurality of external devices; based on the user input for selecting the second device, communicatively connecting the first device to the second device based on corresponding connection information which is received based on the first short distance communication mode; based on a second short distance communication mode different from the first short distance communication mode, transmitting information for controlling the second device to the second device, wherein the first short distance communication mode is BLE communication mode based on a first short distance communication mode, receiving respective connection information and respective authentication information broadcasted from each of a plurality of external devices, the respective authentication information for identifying whether the each of the plurality of external devices is controllable by the first device; based on the respective authentication information, attempting to authenticate the each of the plurality of external devices; based on that a portion of the plurality of external devices is authenticated as controllable by the first device, displaying information related to the portion of the plurality of external devices on a portion of an execution screen of a first application, the portion of the plurality of external devices including a second device; based on the displayed information related to the portion of the plurality of external devices, receiving a user input for selecting the second device among the portion of the plurality of external devices; based on the user input for selecting the second device, communicatively connecting the first device to the second device based on corresponding connection information which is received based on the first short distance communication mode; based on a second short distance communication mode different from the first short distance communication mode, transmitting information for controlling the second device to the second device, wherein the first short distance communication mode is BLE communication mode
An airfoil (160; 260) comprising: an airfoil structure (170; 270) having an interior cavity; a preloaded compliant member (174a, 174b) in the interior cavity; and a panel (172; 272) defining a portion of an airfoil profile, the preloaded compliant member compliantly retaining the panel (172; 272) in a seated position on the airfoil structure (170; 270), wherein the preloaded compliant member includes a mechanical spring, characterised in that: the mechanical spring is a rib seal that divides the interior cavity, the airfoil structure (170; 270) includes a first slot, the panel (172; 272) includes a second slot, and the first slot and the second slot retain the rib seal. an airfoil structure (170; 270) having an interior cavity; a preloaded compliant member (174a, 174b) in the interior cavity; and a panel (172; 272) defining a portion of an airfoil profile, the preloaded compliant member compliantly retaining the panel (172; 272) in a seated position on the airfoil structure (170; 270), wherein the preloaded compliant member includes a mechanical spring,
An immunochromatographic analyzer for detecting Mycoplasma pneumoniae, comprising: a sample adding section; a label-substance retaining section; a chromatographic medium section having a detection section; and an absorbing section, wherein the label-substance retaining section and the detection section contain an antibody that binds the amino acid sequence of SEQ ID NO: 3 in domain III of P30 protein of Mycoplasma pneumoniae consisting of the amino acid sequence of SEQ ID NO: 2. a sample adding section; a label-substance retaining section; a chromatographic medium section having a detection section; and an absorbing section, wherein the label-substance retaining section and the detection section contain an antibody that binds the amino acid sequence of SEQ ID NO: 3 in domain III of P30 protein of Mycoplasma pneumoniae consisting of the amino acid sequence of SEQ ID NO: 2.
A method comprising: identifying that a removable memory card is inserted into a predetermined slot of an electronic device; detecting, upon insertion of the memory card into the electronic device, whether a backup boot record is stored in the boot record area of the internal storage; and determining if a fast mode is selected; wherein if the fast mode is selected the method further comprises: copying a backup boot record of a boot record area and a file allocation table of a file allocation table area in the memory card to a boot record area and a file allocation table area located in an internal storage located in the electronic device; generating a virtual block device that comprises the file allocation table area, the backup boot record, and a cluster heap area, wherein the file allocation table area is synchronized with the file allocation table area located in the internal storage of the electronic device, and the cluster heap area is synchronized with the cluster heap area in the memory card; and mounting a file system of the memory card using the generated virtual block device; wherein the fast mode is a mode for executing the file system of the memory card using the generated virtual block device. identifying that a removable memory card is inserted into a predetermined slot of an electronic device; detecting, upon insertion of the memory card into the electronic device, whether a backup boot record is stored in the boot record area of the internal storage; and determining if a fast mode is selected; wherein if the fast mode is selected the method further comprises: copying a backup boot record of a boot record area and a file allocation table of a file allocation table area in the memory card to a boot record area and a file allocation table area located in an internal storage located in the electronic device; generating a virtual block device that comprises the file allocation table area, the backup boot record, and a cluster heap area, wherein the file allocation table area is synchronized with the file allocation table area located in the internal storage of the electronic device, and the cluster heap area is synchronized with the cluster heap area in the memory card; and mounting a file system of the memory card using the generated virtual block device; copying a backup boot record of a boot record area and a file allocation table of a file allocation table area in the memory card to a boot record area and a file allocation table area located in an internal storage located in the electronic device; generating a virtual block device that comprises the file allocation table area, the backup boot record, and a cluster heap area, wherein the file allocation table area is synchronized with the file allocation table area located in the internal storage of the electronic device, and the cluster heap area is synchronized with the cluster heap area in the memory card; and mounting a file system of the memory card using the generated virtual block device; wherein the fast mode is a mode for executing the file system of the memory card using the generated virtual block device.
A method comprising: positioning a plug having an inner braze element coupled thereto into a cavity (46, 204) defined by an internal surface of a component, wherein the cavity (46, 204) has a circular cross-section at an external surface of the component, wherein the plug fills the circular cross-section, and wherein the inner braze element is within the cavity (46, 204); positioning a braze paste (56, 58) at least partially around the plug at the external surface; positioning the component such that the inner braze element is above the plug; and subjecting the component to a thermal cycle to melt the inner braze element around the plug, sealing the cavity (46, 204) by forming a metallurgical bond (59, 66) with the plug and the internal surface of the component. positioning a plug having an inner braze element coupled thereto into a cavity (46, 204) defined by an internal surface of a component, wherein the cavity (46, 204) has a circular cross-section at an external surface of the component, wherein the plug fills the circular cross-section, and wherein the inner braze element is within the cavity (46, 204); positioning a braze paste (56, 58) at least partially around the plug at the external surface; positioning the component such that the inner braze element is above the plug; and subjecting the component to a thermal cycle to melt the inner braze element around the plug, sealing the cavity (46, 204) by forming a metallurgical bond (59, 66) with the plug and the internal surface of the component.
A capacitive position sensing method for a measurement system having a plurality of pickup electrodes, a shield electrode and a grounded target proximate the pickup electrodes and that is movable relative to the pickup electrodes, the method comprising: measuring a first capacitance C1 of at least one and fewer than all of the pickup electrodes, with the shield electrode and all other pickup electrodes grounded, measuring a second capacitance C2 of the shield electrode and some, but not all, of the pickup electrodes, with at least one of the pickup electrodes grounded, and measuring a third capacitance C3 of all of the pickup electrodes and the shield electrode, with all of the pickup electrodes and the shield electrode connected together; and calculating a first result indicating a position of the target using the first capacitance C1, the second capacitance C2 and the third capacitance C3. measuring a first capacitance C1 of at least one and fewer than all of the pickup electrodes, with the shield electrode and all other pickup electrodes grounded, measuring a second capacitance C2 of the shield electrode and some, but not all, of the pickup electrodes, with at least one of the pickup electrodes grounded, and measuring a third capacitance C3 of all of the pickup electrodes and the shield electrode, with all of the pickup electrodes and the shield electrode connected together; and calculating a first result indicating a position of the target using the first capacitance C1, the second capacitance C2 and the third capacitance C3.
A mesenchymal stem cell culture medium comprising at least 3 kinds of components selected from the group consisting of a PTEN inhibitor, a p53 inhibitor, a p38 inhibitor, an Wnt signal activator and a ROCK inhibitor, with the proviso that the at least 3 kinds of components does not consist only of a PTEN inhibitor, a p53 inhibitor and a Wnt signal activator; and basal medium for culturing animal cells; wherein the PTEN inhibitor is selected from the group consisting of VO-OHPic, HOPic and pV, the p53 inhibitor is selected from the group consisting of sodium orthovanadate, pifithrin-α and MDM2 protein, the p38 inhibitor is selected from the group consisting of SB203580, SB202190, BIRB796, LY2228820, VX-702, PH-797804, TAK-715, VX-745 and Skepinone-L, the Wnt signal activator is a LiCl or a complement molecule C1q, and the ROCK inhibitor is selected from the group consisting of Y-27632, K-115 and Fasudil hydrochloride.