mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling a power generating system, the power generating system comprising a power generating subsystem connected to a point of interconnection, POI, the method comprising: receiving at a subsystem controller of the power generating subsystem, a first data signal corresponding to a feedback signal of an electrical parameter regulated at the POI, the feedback signal having a first signal fidelity; receiving at the subsystem controller, a second data signal indicative of the electrical parameter generated at the power generating subsystem, the second data signal having a second signal fidelity that is higher than the first signal fidelity; with the subsystem controller, generating a correlation value between the first and second data signals (302, 304) by filtering a value difference between the first and second data signals (302, 304) and applying the correlation value to a setpoint value for the electrical parameter regulated at the POI to generate a modified setpoint value; and with the subsystem controller, using the modified setpoint value and the second data signal and applying a voltage droop logic based on a self-detected local reactive power value corresponding to a reactive power supplied by the power generating subsystem to generate a setpoint command comprising a reactive power command (Q cmd) for the power generating subsystem and controlling generation of power at the power generating subsystem using the setpoint command to regulate the electrical parameter at the POI. receiving at a subsystem controller of the power generating subsystem, a first data signal corresponding to a feedback signal of an electrical parameter regulated at the POI, the feedback signal having a first signal fidelity; receiving at the subsystem controller, a second data signal indicative of the electrical parameter generated at the power generating subsystem, the second data signal having a second signal fidelity that is higher than the first signal fidelity; with the subsystem controller, generating a correlation value between the first and second data signals (302, 304) by filtering a value difference between the first and second data signals (302, 304) and applying the correlation value to a setpoint value for the electrical parameter regulated at the POI to generate a modified setpoint value; and with the subsystem controller, using the modified setpoint value and the second data signal and applying a voltage droop logic based on a self-detected local reactive power value corresponding to a reactive power supplied by the power generating subsystem to generate a setpoint command comprising a reactive power command (Q cmd) for the power generating subsystem and controlling generation of power at the power generating subsystem using the setpoint command to regulate the electrical parameter at the POI.
Stirrer lid intended to be fitted on a container comprising: - a hollow cylinder passing perpendicularly through the lid at its centre; - a first end of a stirrer spindle mounted freely at least in translation in the hollow cylinder; - the second end of the stirrer spindle being provided with at least one stirrer paddle which is free at least in rotation relative to the stirrer spindle, the lid being characterised in that the paddle or the paddles are driven at least in rotation about the stirrer spindle by the weight of the spindle or spindles which are suitable to be situated in the container when the lid is fitted on the container, the end of the paddle opposite to the end connected to the stirrer spindle having a heavy part firmly attached to the paddle. - a hollow cylinder passing perpendicularly through the lid at its centre; - a first end of a stirrer spindle mounted freely at least in translation in the hollow cylinder; - the second end of the stirrer spindle being provided with at least one stirrer paddle which is free at least in rotation relative to the stirrer spindle, the lid being characterised in that the paddle or the paddles are driven at least in rotation about the stirrer spindle by the weight of the spindle or spindles which are suitable to be situated in the container when the lid is fitted on the container, the end of the paddle opposite to the end connected to the stirrer spindle having a heavy part firmly attached to the paddle.
A method for preventing or reducing clogging of a fines ejector (10, 20, 30), comprising: (a) providing a fines ejector (10, 20, 30) that is clogging or is susceptible to clogging; (b) passing a motive gas stream (11, 21, 31) into a motive gas inlet of the fines ejector (10, 20, 30); (c) passing an entrained gas stream comprising fine polymer particles (12, 22, 32) into an entrained gas inlet of the fines ejector (10, 20, 30); and (d) introducing a liquid stream into the motive gas stream (11, 21, 31) before the motive gas stream (11, 21, 31) enters the fines ejector (10, 20, 30) to prevent or reduce clogging of the fines ejector (10, 20, 30). (a) providing a fines ejector (10, 20, 30) that is clogging or is susceptible to clogging; (b) passing a motive gas stream (11, 21, 31) into a motive gas inlet of the fines ejector (10, 20, 30); (c) passing an entrained gas stream comprising fine polymer particles (12, 22, 32) into an entrained gas inlet of the fines ejector (10, 20, 30); and (d) introducing a liquid stream into the motive gas stream (11, 21, 31) before the motive gas stream (11, 21, 31) enters the fines ejector (10, 20, 30) to prevent or reduce clogging of the fines ejector (10, 20, 30).
A fixing device comprising: - a rotatably located fixing member, the fixing member being heatable by a heat source; - a rotatably located pressure member, the pressure member being capable of establishing a pressure contact with the fixing member to form a fixing nip; and - a separating unit configured to separate a sheet from the fixing member, the sheet being attached on the fixing member when passing through the fixing nip, wherein the separating unit includes: - a sliding member located in a state of contacting a surface of the fixing member; - a claw member running toward the fixing nip from the sliding member, the claw member having a distal end portion, the claw member being located in a state where the distal end portion contacts the surface of the fixing member; and - a turning mechanism that is configured to reciprocate the sliding member and the claw member along a rotation direction of the fixing member. - a rotatably located fixing member, the fixing member being heatable by a heat source; - a rotatably located pressure member, the pressure member being capable of establishing a pressure contact with the fixing member to form a fixing nip; and - a separating unit configured to separate a sheet from the fixing member, the sheet being attached on the fixing member when passing through the fixing nip, wherein the separating unit includes: - a sliding member located in a state of contacting a surface of the fixing member; - a claw member running toward the fixing nip from the sliding member, the claw member having a distal end portion, the claw member being located in a state where the distal end portion contacts the surface of the fixing member; and - a turning mechanism that is configured to reciprocate the sliding member and the claw member along a rotation direction of the fixing member. - a sliding member located in a state of contacting a surface of the fixing member; - a claw member running toward the fixing nip from the sliding member, the claw member having a distal end portion, the claw member being located in a state where the distal end portion contacts the surface of the fixing member; and - a turning mechanism that is configured to reciprocate the sliding member and the claw member along a rotation direction of the fixing member.
A filter insert for being removably arranged in a filter housing (105,205), wherein the filter insert comprises - a drainage member projecting from a first end of the filter insert, characterized in that - the drainage member forms a drainage valve actuator for actuating a drainage valve in the filter housing (105, 205) and projects in a transverse direction in relation to an axial direction of the filter insert, and - the drainage member has a spherical form. - a drainage member projecting from a first end of the filter insert, characterized in that - the drainage member forms a drainage valve actuator for actuating a drainage valve in the filter housing (105, 205) and projects in a transverse direction in relation to an axial direction of the filter insert, and - the drainage member has a spherical form.
A method (100, 200) comprising: broadcasting, from a client network device, a request for a communication parameter to a plurality of target network devices (106, 108, 110); receiving a communication parameter associated with at least one target network device (106, 108, 110) of the plurality of target network devices (106, 108, 110); determining a number of multi-network broadcast messages to transmit from the client network device based, at least in part, on the communication parameter associated with the at least one target network device (106, 108, 110); transmitting the determined number of multi-network broadcast messages from the client network device to at least a subset of the plurality of target network devices (106, 108, 110); and determining to associate with a first target network device of the plurality of target network devices (106, 108, 110) based, at least in part, on first attenuation information received at the client network device from at least the first target network device (106, 108, 110). broadcasting, from a client network device, a request for a communication parameter to a plurality of target network devices (106, 108, 110); receiving a communication parameter associated with at least one target network device (106, 108, 110) of the plurality of target network devices (106, 108, 110); determining a number of multi-network broadcast messages to transmit from the client network device based, at least in part, on the communication parameter associated with the at least one target network device (106, 108, 110); transmitting the determined number of multi-network broadcast messages from the client network device to at least a subset of the plurality of target network devices (106, 108, 110); and determining to associate with a first target network device of the plurality of target network devices (106, 108, 110) based, at least in part, on first attenuation information received at the client network device from at least the first target network device (106, 108, 110). transmitting the determined number of multi-network broadcast messages from the client network device to at least a subset of the plurality of target network devices (106, 108, 110); and determining to associate with a first target network device of the plurality of target network devices (106, 108, 110) based, at least in part, on first attenuation information received at the client network device from at least the first target network device (106, 108, 110).
A key which has a body along which a plurality of projections are arranged, said plurality of projections all being arranged in a common plane and said plurality of projections all having the same height and defining together the profile of the key, wherein the key body consists of a plurality of key elements being arranged along the body of the key, on which key elements said projections are disposed, and wherein the key is buildable from said key elements, characterized in that - the key elements are arranged on a shank in a central groove, - the key comprises a plurality of projections in two opposite directions along the key body, - two or four combinations can be obtained by turning the key elements vertically and horizontally so that if the same key element is turned about its vertical axis the profile is reversed, and - the key element also can be turned about its horizontal axis giving the key element a new upper profile and a lower profile. - the key elements are arranged on a shank in a central groove, - the key comprises a plurality of projections in two opposite directions along the key body, - two or four combinations can be obtained by turning the key elements vertically and horizontally so that if the same key element is turned about its vertical axis the profile is reversed, and - the key element also can be turned about its horizontal axis giving the key element a new upper profile and a lower profile.
A luminescent-substance mixture comprising a first luminescent substance and a second luminescent substance, wherein, upon excitation with blue light, the emission spectrum of the first luminescent substance comprises a relative intensity maximum in the yellowish-green spectral range at a wavelength of greater than or equal to 540 nm and less than or equal to 560 nm and the emission spectrum of the second luminescent substance comprises a relative intensity maximum in the orange-red spectral range at a wavelength of greater than or equal to 600 nm and less than or equal to 620 nm, wherein the second luminescent substance is selected from the material system (Ca, Sr, Eu)AlSiN 3 •Si 2 N 2 O and from the material system (Ca, Sr, Ba, Eu) 2 Si 5 N 8 with an Eu content greater than or equal to 1 mol% and less than or equal to 2.5 mol%, with a Ba content of greater than or equal to 45 mol% and less than or equal to 55 mol% and with a Ca content of greater than or equal to 0 mol% and less than or equal to 10 mol%, wherein the Sr content is selected such that the sum of the Eu, Ba, Ca and Sr contents is 100 mol%, wherein the first luminescent substance is selected from the material system (Y, Lu, Ce) 3 Al 5 O 12 with a Ce content of greater than or equal to 0.5 mol% and less than or equal to 5 mol% and a Y content of greater than or equal to 0 mol% and less than or equal to 20 mol%, and whe rein the light produced by the luminescent-substance mixture upon excitation with blue light comprises a color locus having a color temperature between 3000 K, inclusive, and 6500 K, inclusive, and a color rendering index of at least 65.
A circuit (202, 204), comprising: a first transistor (210, 220) having a gate, a source connected with a first node of the circuit (202, 204), and a drain connected with a second node of the circuit (202, 204); a voltage-limiting device (224, 226) connected between the gate and the source of the first transistor (210, 220), wherein the device (224, 226), if forward biased, is configured to limit a gate-to-source voltage, V GS, of the first transistor (210, 220) such that the first transistor (210, 220) operates in a sub-threshold region; and a second transistor (212, 222) configured to bias the voltage-limiting device (224, 226) with a current, wherein: a drain of the second transistor (212, 222) is connected with the gate of the first transistor (210, 220); a gate of the second transistor (212, 222) is connected with the first node; and a source of the second transistor (212, 222) is connected with an electric potential. a first transistor (210, 220) having a gate, a source connected with a first node of the circuit (202, 204), and a drain connected with a second node of the circuit (202, 204); a voltage-limiting device (224, 226) connected between the gate and the source of the first transistor (210, 220), wherein the device (224, 226), if forward biased, is configured to limit a gate-to-source voltage, V GS, of the first transistor (210, 220) such that the first transistor (210, 220) operates in a sub-threshold region; and a second transistor (212, 222) configured to bias the voltage-limiting device (224, 226) with a current, wherein: a drain of the second transistor (212, 222) is connected with the gate of the first transistor (210, 220); a gate of the second transistor (212, 222) is connected with the first node; and a source of the second transistor (212, 222) is connected with an electric potential. a drain of the second transistor (212, 222) is connected with the gate of the first transistor (210, 220); a gate of the second transistor (212, 222) is connected with the first node; and a source of the second transistor (212, 222) is connected with an electric potential.
A method for sending a certificate, performed by a cloud, wherein the method comprises: acquiring a root certificate of a first node; generating a target sub-certificate based on the root certificate, wherein the target sub-certificate comprises a first sub-certificate of a first functional module of a first application associated with the first node; and sending the target sub-certificate to a terminal device, wherein the target sub-certificate is used for the first functional module of the first application in the terminal device to communicate through the target sub-certificate. acquiring a root certificate of a first node; generating a target sub-certificate based on the root certificate, wherein the target sub-certificate comprises a first sub-certificate of a first functional module of a first application associated with the first node; and sending the target sub-certificate to a terminal device, wherein the target sub-certificate is used for the first functional module of the first application in the terminal device to communicate through the target sub-certificate.
A method comprising: receiving, by a first provider edge, PE, router included in an Ethernet segment of a Provider-Backbone Bridging Ethernet Virtual Private Network, PBB-EVPN, and from a second PE router included in the Ethernet segment, a layer two, L2, control message, the L2 control message comprising a Customer MAC, C-MAC, address learned from a customer edge, CE, router and a first Bridging MAC, B-MAC, address that is configured at the second PE router but not at the first PE router; storing, by the first PE router and based on the L2 control message, an association between the C-MAC address and the first B-MAC address based at least in part on the first PE router and the second PE router each being configured for a second B-MAC address associated with the Ethernet segment; and sending, by the first PE router and to the second PE router, an L2 data message as unicast traffic that includes the C-MAC address, the L2 data message to be forwarded by the first PE router to the CE router. receiving, by a first provider edge, PE, router included in an Ethernet segment of a Provider-Backbone Bridging Ethernet Virtual Private Network, PBB-EVPN, and from a second PE router included in the Ethernet segment, a layer two, L2, control message, the L2 control message comprising a Customer MAC, C-MAC, address learned from a customer edge, CE, router and a first Bridging MAC, B-MAC, address that is configured at the second PE router but not at the first PE router; storing, by the first PE router and based on the L2 control message, an association between the C-MAC address and the first B-MAC address based at least in part on the first PE router and the second PE router each being configured for a second B-MAC address associated with the Ethernet segment; and sending, by the first PE router and to the second PE router, an L2 data message as unicast traffic that includes the C-MAC address, the L2 data message to be forwarded by the first PE router to the CE router.
A battery pack processing apparatus configured to discharge a battery pack having at least one single cell and a case accommodating the at least one single cell by immersing the battery pack in a discharge liquid, characterized by comprising, a press machine adapted to press the battery pack and form in the case an aperture through which the discharge liquid can flow inside the case.
A data retention device, comprising a dedicated storage module, an encryption module and a lock fastener module wherein: the dedicated storage module comprises a data plug, a locking hole, a control element, a storage element and a substrate which is electrically connected to all components in the dedicated storage module; the encryption module comprises a data socket, an external component, an encryption component, a power source component and a printed circuit board which is electrically connected to all components in the encryption module; the lock fastener module comprises a locking element, element, a power element and a fingerprint switch wherein the locking element is driven and shifted to another position by the power element energized from the power source component; wherein the power source component is activated by the fingerprint switch; the encryption module is electrically connected to the dedicated storage module through the data socket when the data plug is inserted into the data socket and the locking element is fixed at the locking hole; the external component of the encryption module is configured to electrically connect to an external device and to access classified information which will be encrypted by the encryption component and saved in the storage element. the dedicated storage module comprises a data plug, a locking hole, a control element, a storage element and a substrate which is electrically connected to all components in the dedicated storage module; the encryption module comprises a data socket, an external component, an encryption component, a power source component and a printed circuit board which is electrically connected to all components in the encryption module; the lock fastener module comprises a locking element, element, a power element and a fingerprint switch wherein the locking element is driven and shifted to another position by the power element energized from the power source component; wherein the power source component is activated by the fingerprint switch; the encryption module is electrically connected to the dedicated storage module through the data socket when the data plug is inserted into the data socket and the locking element is fixed at the locking hole; the external component of the encryption module is configured to electrically connect to an external device and to access classified information which will be encrypted by the encryption component and saved in the storage element.