mhurhangee/ep-ind-claims huggingface dataset:
A mobile system for use in delivering pressurized fluid to a wellbore at a wellsite for a fracturing operation, the system comprising: a turbine generator powered by natural gas at the wellsite, wherein the turbine generator provides a source of electricity for powering the fracturing operation; an electrically powered fracturing module operatively associated with the source of electricity, the electrically powered fracturing module comprising an electric motor and a fluid pump coupled to the electric motor; an electrically powered blender module operatively associated with the source of electricity and capable of providing treatment fluid to the fluid pump for delivery to the wellbore; a control system for regulating the fracturing module in delivery of treatment fluid from the electrically powered blender module to the fluid pump for delivery to the wellbore; a trailer for housing the electrically powered fracturing module or the electrically powered blender module; characterized in that the system comprises an electrical transformer and drive unit configured to control a voltage of the electricity from the turbine generator. a turbine generator powered by natural gas at the wellsite, wherein the turbine generator provides a source of electricity for powering the fracturing operation; an electrically powered fracturing module operatively associated with the source of electricity, the electrically powered fracturing module comprising an electric motor and a fluid pump coupled to the electric motor; an electrically powered blender module operatively associated with the source of electricity and capable of providing treatment fluid to the fluid pump for delivery to the wellbore; a control system for regulating the fracturing module in delivery of treatment fluid from the electrically powered blender module to the fluid pump for delivery to the wellbore; a trailer for housing the electrically powered fracturing module or the electrically powered blender module; characterized in that the system comprises an electrical transformer and drive unit configured to control a voltage of the electricity from the turbine generator.
Coaxial RF connector comprising at least an inner conductor defining a center axis of the connector, and an outer conductor coaxial to the inner conductor, the outer conductor having a tubular shape with a plurality of longitudinal slits, the slits extending to an end face of the outer conductor and forming a plurality of spring loaded contact elements, wherein a contact sleeve is arranged surrounding coaxially the outer conductor, the contact sleeve is movable in a direction parallel to the center axis, the contact sleeve has a radial contact face which is in contact with the spring loaded contact elements, the contact sleeve has an axial contact face which has a plane orthogonal to the center axis, and a spring element is in contact with the contact sleeve to assert a force on the contact sleeve in a direction parallel to the center axis and outward of the connector. an inner conductor defining a center axis of the connector, and an outer conductor coaxial to the inner conductor, the outer conductor having a tubular shape with a plurality of longitudinal slits, the slits extending to an end face of the outer conductor and forming a plurality of spring loaded contact elements, wherein a contact sleeve is arranged surrounding coaxially the outer conductor, the contact sleeve is movable in a direction parallel to the center axis, the contact sleeve has a radial contact face which is in contact with the spring loaded contact elements, the contact sleeve has an axial contact face which has a plane orthogonal to the center axis, and a spring element is in contact with the contact sleeve to assert a force on the contact sleeve in a direction parallel to the center axis and outward of the connector.
A method for accelerating data transfer operations on a hypervisor using an accelerator device, the method comprising: prior to booting the hypervisor on a processor subsystem having a root complex, configuring a first Peripheral Component Interconnect Express (PCI-E) endpoint and a second PCI-E endpoint associated with the accelerator device, wherein the accelerator device is a physical PCI-E device exclusively accessible to the processor subsystem; booting the hypervisor using the processor subsystem; loading a storage virtual appliance as a virtual machine on the hypervisor, wherein the hypervisor assigns the second PCI-E endpoint for exclusive access by the SVA using a second root port of the root complex; activating the first PCI-E endpoint by the SVA using a first root port of the root complex via the second PCI-E endpoint; responsive to activating the first PCI-E endpoint, loading a hypervisor device driver (214; 216) for the first PCI-E endpoint, wherein the first PCI-E endpoint appears to the hypervisor as a logical hardware adapter accessible via the hypervisor device driver (214; 216); and initiating, by the SVA, a data transfer operation between the first PCI-E endpoint and the second PCI-E endpoint. prior to booting the hypervisor on a processor subsystem having a root complex, configuring a first Peripheral Component Interconnect Express (PCI-E) endpoint and a second PCI-E endpoint associated with the accelerator device, wherein the accelerator device is a physical PCI-E device exclusively accessible to the processor subsystem; booting the hypervisor using the processor subsystem; loading a storage virtual appliance as a virtual machine on the hypervisor, wherein the hypervisor assigns the second PCI-E endpoint for exclusive access by the SVA using a second root port of the root complex; activating the first PCI-E endpoint by the SVA using a first root port of the root complex via the second PCI-E endpoint; responsive to activating the first PCI-E endpoint, loading a hypervisor device driver (214; 216) for the first PCI-E endpoint, wherein the first PCI-E endpoint appears to the hypervisor as a logical hardware adapter accessible via the hypervisor device driver (214; 216); and initiating, by the SVA, a data transfer operation between the first PCI-E endpoint and the second PCI-E endpoint.
A closing device for doors, windows or the like, with a first lock having a catch bolt and/or a locking bar, and with a second lock having a thumb latch nut with a thumb latch, wherein the second lock, in the state built into the door or the window, is located above the first lock, and a connecting rod is provided, which transmits the opening motion of the second lock directly or indirectly to the catch bolt and/or the locking bar of the first lock, wherein the thumb latch nut of the second lock has a coupling element, wherein the coupling element engages the connecting rod, and wherein the connecting rod, in the state built into the door or the window, is located behind a cuff, mounted on the long side of the wing of a door or casement of a window, characterized in that the coupling element is formed by a lug protruding radially from the thumb latch nut; and that the radially protruding lug transmits a rotary motion of the thumb latch nut directly to the connecting rod.
Heating device (11, 111) for a cooking hob (35, 135, 235, 335), wherein said heating device has: - a flat carrier with an outer edge, - said carrier has a substantially rectangular shape, - two heating elements (19, 22) which each have at least one heating conductor (20, 23) and which together form a heating area (Ha, Hb), wherein - said heating conductors (20, 23) are fastened on said carrier, - each said heating element (19, 22) defines a partial heating area (1TH, 2TH), - said heating elements (19, 22) and/or said partial heating areas (1TH, 2TH) can be operated independently of one another and/or have respectively dedicated electrical connections, - the partial heating areas (1TH, 2TH) are situated inside the rectangular shape of the carrier, wherein - said partial heating areas (1TH, 2TH) of said heating elements (19, 22) do not intersect, - a first partial heating area (1THa, 1THb) is rectangular and extends, by way of at least one of its outer sides, to an outer edge or to an inner side of said outer edge of said carrier and runs parallel in relation to said outer edge, characterized in that - a second partial heating area (2THa, 2THb) covers a rest of said carrier which is left free by said first partial heating area (1THa, 1THb). - a flat carrier with an outer edge, - said carrier has a substantially rectangular shape, - two heating elements (19, 22) which each have at least one heating conductor (20, 23) and which together form a heating area (Ha, Hb), wherein - said heating conductors (20, 23) are fastened on said carrier, - each said heating element (19, 22) defines a partial heating area (1TH, 2TH), - said heating elements (19, 22) and/or said partial heating areas (1TH, 2TH) can be operated independently of one another and/or have respectively dedicated electrical connections, - the partial heating areas (1TH, 2TH) are situated inside the rectangular shape of the carrier, wherein - said partial heating areas (1TH, 2TH) of said heating elements (19, 22) do not intersect, - a first partial heating area (1THa, 1THb) is rectangular and extends, by way of at least one of its outer sides, to an outer edge or to an inner side of said outer edge of said carrier and runs parallel in relation to said outer edge, characterized in that - a second partial heating area (2THa, 2THb) covers a rest of said carrier which is left free by said first partial heating area (1THa, 1THb).
A method implemented by a wireless device in a wireless communication system, for adjusting a nominal maximum output power level of the wireless device, the wireless device being capable of operating in at least two wireless communication system scenarios associated with different levels of criticality, the wireless device being served by a network node operating in the wireless communication system, the method comprising: - obtaining an indication indicating a current level of criticality in the wireless communication system, wherein the current level of criticality indicates how critical it is for the wireless device to communicate with the wireless communication system, - adjusting the nominal maximum output power level to a level reflective of the indicated current level of criticality, - selecting a radio emission requirement depending on the current level of criticality indicated by the obtained indication, and - transmitting a signal to the network node serving the wireless device at a transmit power equal to or below the adjusted nominal maximum output power level, wherein the signal is transmitted at a transmit power such that the selected radio emission requirement is met. - obtaining an indication indicating a current level of criticality in the wireless communication system, wherein the current level of criticality indicates how critical it is for the wireless device to communicate with the wireless communication system, - adjusting the nominal maximum output power level to a level reflective of the indicated current level of criticality, - selecting a radio emission requirement depending on the current level of criticality indicated by the obtained indication, and - transmitting a signal to the network node serving the wireless device at a transmit power equal to or below the adjusted nominal maximum output power level, wherein the signal is transmitted at a transmit power such that the selected radio emission requirement is met.
A curved secondary battery, comprising: a curved electrode assembly; and a pouch (120, 220) that accommodates the electrode assembly, wherein the pouch includes: a first encapsulpation sheet (122, 222) on a curved first surface of the electrode assembly, the first encapsulation sheet having a first accommodation portion with the same curvature as the first surface; a second encapsulation sheet (124, 224) on a curved second surface of the electrode assembly, the second encapsulation sheet having a second accommodation portion with the same curvature as the second surface; and a planar flange where a first planar boundary portion (123, 223) of the first encapsulation sheet, extending outwardly from all sides of the first accommodation portion, and a second planar boundary portion (125, 225) of the second encapsulation sheet, extending outwardly from all sides of the second accommodation portion, are attached to each other, wherein the electrode assembly is accommodated in the first and second accommodation portions. a curved electrode assembly; and a pouch (120, 220) that accommodates the electrode assembly, wherein the pouch includes: a first encapsulpation sheet (122, 222) on a curved first surface of the electrode assembly, the first encapsulation sheet having a first accommodation portion with the same curvature as the first surface; a second encapsulation sheet (124, 224) on a curved second surface of the electrode assembly, the second encapsulation sheet having a second accommodation portion with the same curvature as the second surface; and a planar flange where a first planar boundary portion (123, 223) of the first encapsulation sheet, extending outwardly from all sides of the first accommodation portion, and a second planar boundary portion (125, 225) of the second encapsulation sheet, extending outwardly from all sides of the second accommodation portion, are attached to each other, a first encapsulpation sheet (122, 222) on a curved first surface of the electrode assembly, the first encapsulation sheet having a first accommodation portion with the same curvature as the first surface; a second encapsulation sheet (124, 224) on a curved second surface of the electrode assembly, the second encapsulation sheet having a second accommodation portion with the same curvature as the second surface; and a planar flange where a first planar boundary portion (123, 223) of the first encapsulation sheet, extending outwardly from all sides of the first accommodation portion, and a second planar boundary portion (125, 225) of the second encapsulation sheet, extending outwardly from all sides of the second accommodation portion, are attached to each other, wherein the electrode assembly is accommodated in the first and second accommodation portions.
Battery charging point with a) a battery charging device for charging a rechargeable electric battery, especially a battery of an electric vehicle, b) a safety box, in which the battery charging device is disposed, characterised by c) an automatic monitoring device, especially a fire detector, to identify a fault state, especially the development of a fire, in the safety box, and d) a first circuit-breaker, which connects the battery charging device with the battery and is actuated by the monitoring device in such a way that the first circuit-breaker disconnects the battery charging device from the battery in the event of a fire. a) a battery charging device for charging a rechargeable electric battery, especially a battery of an electric vehicle, b) a safety box, in which the battery charging device is disposed, c) an automatic monitoring device, especially a fire detector, to identify a fault state, especially the development of a fire, in the safety box, and d) a first circuit-breaker, which connects the battery charging device with the battery and is actuated by the monitoring device in such a way that the first circuit-breaker disconnects the battery charging device from the battery in the event of a fire.
A martensitic stainless steel strengthened by copper-nucleated nitride precipitates comprising, in combination by weight percent, 10.0 to 12.5 Cr, 2.0 to 7.5 Ni, up to about 17.0 Co, 0.6 to 1.5 Mo, 0.5 to 2.3 Cu, up to about 0.6 Mn, up to about 0.4 Si, 0.05 to 0.15 V, up to about 0.10 N, up to about 0.035 C, up to about 0.01 W, and the balance Fe and incidental elements and impurities.
Plug-on brush device for a toothbrush handpiece, in particular for an electrical toothbrush handpiece, with an application unit comprising a head section with a brush head, a plug-on section and a neck section that is arranged between the head section and the plug-on section, and with an interface accommodation unit comprising at least one interface accommodation for receiving at least one interface of a toothbrush handpiece, the interface accommodation unit being realized separately and the plug-on section of the application unit comprising a receiving region for a loss-proof, at least substantially complete accommodation of the interface accommodation unit, characterised in that the interface accommodation unit comprises at least one spring section which is configured, in a state when an interface of the toothbrush handpiece is accommodated, to exert a tension force onto the interface of the toothbrush handpiece, the spring section comprising at least one spring bar element and at least one bow spring element each of which is configured, in a state when an interface of the toothbrush handpiece is accommodated, to exert a tension force onto the interface of the toothbrush handpiece. with an application unit comprising a head section with a brush head, a plug-on section and a neck section that is arranged between the head section and the plug-on section, and with an interface accommodation unit comprising at least one interface accommodation for receiving at least one interface of a toothbrush handpiece, the interface accommodation unit being realized separately and the plug-on section of the application unit comprising a receiving region for a loss-proof, at least substantially complete accommodation of the interface accommodation unit, characterised in that the interface accommodation unit comprises at least one spring section which is configured, in a state when an interface of the toothbrush handpiece is accommodated, to exert a tension force onto the interface of the toothbrush handpiece, the spring section comprising at least one spring bar element and at least one bow spring element each of which is configured, in a state when an interface of the toothbrush handpiece is accommodated, to exert a tension force onto the interface of the toothbrush handpiece.
A wireless communication method of a source node, the method comprising: operating in a link cooperating type; transmitting a relay operation change, ROC, request message via a direct link to a destination node to change a relay operation type from the link cooperating type to a link switching type when a link between the source node and a relay node is incapable; receiving an ROC response message including a status code field, wherein the status code field is set to "0', indicating whether the change of the relay operation type is approved; and transmitting a data frame to the destination node in the link switching type, wherein the link cooperating type is a type in which the source node transmits data to the destination node via the direct link and transmits the same data to the destination node via a relay link, and the link switching type is a type in which, when one of the direct link and the relay link has a problem, the source node switches the one link having the problem to the other link, and communicates with the destination node via the other link. operating in a link cooperating type; transmitting a relay operation change, ROC, request message via a direct link to a destination node to change a relay operation type from the link cooperating type to a link switching type when a link between the source node and a relay node is incapable; receiving an ROC response message including a status code field, wherein the status code field is set to "0', indicating whether the change of the relay operation type is approved; and transmitting a data frame to the destination node in the link switching type, wherein the link cooperating type is a type in which the source node transmits data to the destination node via the direct link and transmits the same data to the destination node via a relay link, and the link switching type is a type in which, when one of the direct link and the relay link has a problem, the source node switches the one link having the problem to the other link, and communicates with the destination node via the other link.
A cutting tool having a plurality of blades, comprising: a plurality of shaft parts (31, 32) having blades at respective one ends and projections at positions distant from the blades; a shaft-receiving part having cylindrical parts to fit to portions of the shaft parts (31, 32); a guide part having receiving parts of the projections extending in one direction; and stretchable elastic bodies positioned between the blades and the shaft-receiving part, wherein the shaft parts (31, 32) are held by the shaft-receiving part such that the projections are movably fitted to the receiving parts, respectively. a plurality of shaft parts (31, 32) having blades at respective one ends and projections at positions distant from the blades; a shaft-receiving part having cylindrical parts to fit to portions of the shaft parts (31, 32); a guide part having receiving parts of the projections extending in one direction; and stretchable elastic bodies positioned between the blades and the shaft-receiving part, wherein the shaft parts (31, 32) are held by the shaft-receiving part such that the projections are movably fitted to the receiving parts, respectively.
A method for manufacturing an electrode, the method comprising the steps of: applying an electrode active material onto a collector; and radiating a pulse laser such that the end of an electrode active material layer, which has been obtained by applying the electrode active material, becomes straight, thereby removing the electrode active material, the pulse laser having a pulse energy of 0.1 to 3 mJ. applying an electrode active material onto a collector; and radiating a pulse laser such that the end of an electrode active material layer, which has been obtained by applying the electrode active material, becomes straight, thereby removing the electrode active material, the pulse laser having a pulse energy of 0.1 to 3 mJ.
A method performed by a mobile communication device, the method comprising: receiving an incoming call message for an incoming call, the incoming call message having data indications in one or more data fields indicating whether the incoming call is for silent, automatic answering; if said data indications indicate that the incoming call is for silent, automatic answering, then refraining from producing an audible alert at the mobile communication device for alerting of the call and causing the incoming call to be answered automatically by the mobile communication device without detecting a manual answer signal via a user interface of the mobile communication device; if said data indications do not indicate that the incoming call is for silent, automatic answering, refraining from causing the incoming call to be answered automatically by the mobile communication device without detecting the manual answer signal; and in response to detecting the manual answer signal via a user interface, causing the incoming call to be answered. receiving an incoming call message for an incoming call, the incoming call message having data indications in one or more data fields indicating whether the incoming call is for silent, automatic answering; if said data indications indicate that the incoming call is for silent, automatic answering, then refraining from producing an audible alert at the mobile communication device for alerting of the call and causing the incoming call to be answered automatically by the mobile communication device without detecting a manual answer signal via a user interface of the mobile communication device; if said data indications do not indicate that the incoming call is for silent, automatic answering, refraining from causing the incoming call to be answered automatically by the mobile communication device without detecting the manual answer signal; and in response to detecting the manual answer signal via a user interface, causing the incoming call to be answered.