mhurhangee/patent-ind-claim-en huggingface dataset:
A method for operating a smart network interface card , the smart network interface card is connected to a baseboard management controller , the method comprising: acquiring , from a network device, a smart network interface card detection request wherein the smart network interface card detection request includes an identifier of a to-be-detected smart network interface card , and the smart network interface card is used to connect a server and the network device, wherein the to-be-detected smart network interface card reduces an amount of data processing for a first CPU of the server, and has a self-contained resource, the self-contained resource being a second CPU, wherein when detecting a network failure of the server, the network device determines the smart network interface card providing a network connection support for the server as the to-be-detected smart network interface card; determining a baseboard management controller connected to the to-be-detected smart network interface card as a target baseboard management controller; and logging into the operating system of the to-be-detected smart network interface card through the target baseboard management controller. acquiring , from a network device, a smart network interface card detection request wherein the smart network interface card detection request includes an identifier of a to-be-detected smart network interface card , and the smart network interface card is used to connect a server and the network device, wherein the to-be-detected smart network interface card reduces an amount of data processing for a first CPU of the server, and has a self-contained resource, the self-contained resource being a second CPU, wherein when detecting a network failure of the server, the network device determines the smart network interface card providing a network connection support for the server as the to-be-detected smart network interface card; determining a baseboard management controller connected to the to-be-detected smart network interface card as a target baseboard management controller; and logging into the operating system of the to-be-detected smart network interface card through the target baseboard management controller.
Method for refurbishing a rotary bearing , especially a rotary bearing of a wind turbine , the bearing comprising a fixed component that supports a moving component during the operation of the bearing , wherein the fixed component or the moving component comprises a raceway of the bearing , wherein a roughness of the raceway is reduced by adding material to and/or removing material from the raceway , wherein the adding and/or removing of material is performed while the component that comprises the raceway is mounted to a device comprising the bearing , especially a wind turbine , and while the moving component of the bearing extends through the fixed component of the bearing or vice versa, characterized in that the component that comprises the raceway comprises an additional raceway that is used to form a bearing between the fixed and the moving component while the material is added or removed.
A system for calibrating a payload of a satellite, the system comprising the payload (CU) comprising a multichannel receiver comprising one antenna (ANT) per channel, one analogue processing chain (RF 1 , RF 2 ) per channel and a set of digital integrated circuits (PN), the system further comprising a ground station (ST) configured to transmit a calibration signal comprising a plurality of frequencies, the system further comprising a calibration device (DCAL) implemented in the payload (CU) or in the ground station (ST), the calibration device (DCAL) being configured to: • acquire for all the channels of the receiver, the digitised calibration signal, • set a reference channel and, for each of the other channels, - determine a relative complex gain between the channel and the reference channel, for a plurality of frequencies of the calibration signal, - correct the relative complex gain of a relative gain of the antenna (ANT) of the payload (CU) between the channel and the reference channel, - estimate , from the phase of the relative complex gain, which phase is evaluated for a set of frequencies, a relative propagation delay of the calibration signal, - estimate , from the phase of the relative complex gain, which phase is evaluated for a set of frequencies, and from the relative delay, a relative phase difference for the set of frequencies, - provide a correction of the relative gain, phase difference and delay of the channel with respect to the reference channel for a set of frequencies. • acquire for all the channels of the receiver, the digitised calibration signal, • set a reference channel and, for each of the other channels, - determine a relative complex gain between the channel and the reference channel, for a plurality of frequencies of the calibration signal, - correct the relative complex gain of a relative gain of the antenna (ANT) of the payload (CU) between the channel and the reference channel, - estimate , from the phase of the relative complex gain, which phase is evaluated for a set of frequencies, a relative propagation delay of the calibration signal, - estimate , from the phase of the relative complex gain, which phase is evaluated for a set of frequencies, and from the relative delay, a relative phase difference for the set of frequencies, - provide a correction of the relative gain, phase difference and delay of the channel with respect to the reference channel for a set of frequencies.
An RFID pairing system comprising: at least one differential electric field activated RFID device comprising an RFID strap and at least one coupler ; wherein the at least one coupler comprises at least one metallic structure, which is configured to have one or more points creating a differential electric field; wherein the at least one metallic structure comprises at least one pair of coupler plates , wherein the differential electric field exists between the at least one pair of coupler plates of the at least one coupler ; characterized in that the RFID device is a UHF RFID device and the pair of coupler plates are formed as a C-shaped structure with two arms, and wherein the at least one strap of the RFID device is is placed within the arms of the C-shaped structure of the pair of coupler plates in the differential electric field at least one differential electric field activated RFID device comprising an RFID strap and at least one coupler ; wherein the at least one coupler comprises at least one metallic structure, which is configured to have one or more points creating a differential electric field; wherein the at least one metallic structure comprises at least one pair of coupler plates , wherein the differential electric field exists between the at least one pair of coupler plates of the at least one coupler ; characterized in that the RFID device is a UHF RFID device and the pair of coupler plates are formed as a C-shaped structure with two arms, and wherein the at least one strap of the RFID device is is placed within the arms of the C-shaped structure of the pair of coupler plates in the differential electric field
An implantable medical lead comprising: a first defibrillation electrode and a second defibrillation electrode , the first and second defibrillation electrodes configured to deliver anti-tachyarrhythmia shocks; a pace electrode disposed between the first defibrillation electrode and the second defibrillation electrode, the pace electrode configured to deliver a pacing pulse that generates an electric field proximate to the pace electrode; and a shield disposed between the first defibrillation electrode and the second defibrillation electrode, over a portion of an outer surface of the pace electrode, and extending laterally away from the pace electrode, characterized in that the shield is configured to impede the electric field in a direction from the pace electrode away from a heart . a first defibrillation electrode and a second defibrillation electrode , the first and second defibrillation electrodes configured to deliver anti-tachyarrhythmia shocks; a pace electrode disposed between the first defibrillation electrode and the second defibrillation electrode, the pace electrode configured to deliver a pacing pulse that generates an electric field proximate to the pace electrode; and a shield disposed between the first defibrillation electrode and the second defibrillation electrode, over a portion of an outer surface of the pace electrode, and extending laterally away from the pace electrode, characterized in that the shield is configured to impede the electric field in a direction from the pace electrode away from a heart .
A backpack comprising: a. a main body ; b. at least one cushioning shoulder strap ; c. at least two coupling straps individually connecting a proximal part of the at least one cushioning shoulder strap to the main body ; wherein the proximal part is closer to the main body than a distal part of the at least one cushioning shoulder strap ; d. wherein the at least two coupling straps are adapted to adjust the position of the proximal part of the at least one cushioning shoulder strap in a lateral direction which is orthogonal to the longitudinal extension of the at least one cushioning shoulder strap , and e. a first and a second pair of coupling straps , wherein the first pair is connected to a proximal part of a first cushioning shoulder strap and to the main body and the second pair is connected to a proximal part of a second cushioning shoulder strap and to the main body ; f. wherein a coupling strap of the first pair is connected to a coupling strap of the second pair. a. a main body ; b. at least one cushioning shoulder strap ; c. at least two coupling straps individually connecting a proximal part of the at least one cushioning shoulder strap to the main body ; wherein the proximal part is closer to the main body than a distal part of the at least one cushioning shoulder strap ; d. wherein the at least two coupling straps are adapted to adjust the position of the proximal part of the at least one cushioning shoulder strap in a lateral direction which is orthogonal to the longitudinal extension of the at least one cushioning shoulder strap , and e. a first and a second pair of coupling straps , wherein the first pair is connected to a proximal part of a first cushioning shoulder strap and to the main body and the second pair is connected to a proximal part of a second cushioning shoulder strap and to the main body ; f. wherein a coupling strap of the first pair is connected to a coupling strap of the second pair.
A separator drum comprising a hydraulically actuated, axially movable piston slide valve , which can seal off a solids space from at least one solids outlet , wherein the piston slide valve can be held in its closed position via a closing chamber , which can be filled with closing liquid, in particular closing water, wherein the closing chamber is formed between an underside of the piston slide valve and a top side of a drum lower part , wherein the closing chamber has a first closing chamber portion near the axis of rotation (R) and a second closing chamber portion remote from the axis of rotation (R), wherein the first closing chamber portion is formed by two portions , which are arranged parallel to one another, of the underside of the piston slide valve and of the top side of the drum lower part , and the second closing chamber portion has a conical cross section at least in part, characterized by at least a drum valve for discharging closing liquid, wherein a first outflow channel is formed between the first closing chamber portion and the at least one drum valve , and a second outflow channel is formed between the second closing chamber portion and the at least one drum valve . the closing chamber has a first closing chamber portion near the axis of rotation (R) and a second closing chamber portion remote from the axis of rotation (R), wherein the first closing chamber portion is formed by two portions , which are arranged parallel to one another, of the underside of the piston slide valve and of the top side of the drum lower part , and the second closing chamber portion has a conical cross section at least in part, characterized by at least a drum valve for discharging closing liquid, wherein a first outflow channel is formed between the first closing chamber portion and the at least one drum valve , and a second outflow channel is formed between the second closing chamber portion and the at least one drum valve .
A processing system for use in determining a force applied to a tip of a medical instrument , the system being configured to: receive at least one input from a medical instrument, the medical instrument including at least one elongated actuation member used to move at least a portion of the medical instrument; and determine a force on a tip of the medical instrument by applying the at least one input to a lumped model of the medical instrument; wherein the lumped model comprises: a mass of a motor used to operate the at least one elongated actuation member; and a mass of at least a portion of a catheter body of the medical instrument. receive at least one input from a medical instrument, the medical instrument including at least one elongated actuation member used to move at least a portion of the medical instrument; and determine a force on a tip of the medical instrument by applying the at least one input to a lumped model of the medical instrument; wherein the lumped model comprises: a mass of a motor used to operate the at least one elongated actuation member; and a mass of at least a portion of a catheter body of the medical instrument. a mass of a motor used to operate the at least one elongated actuation member; and a mass of at least a portion of a catheter body of the medical instrument.
Kit of dental instruments for intraoral scanning, said kit comprising at least an instrument for the left side lower arch of the patient, at least an instrument for the right side lower arch of the patient, the latter being structurally mirrored with respect to said instrument for the left side lower arch of the patient, at least an instrument for the upper arch of the patient, said instruments each having one handle and two arms, said instruments for the lower arch each having a curved arm directed in lateral direction with respect to the handle and one curved arm directed in front direction, said instrument for the upper arch having the arms with one configured in right lateral direction and the other in left lateral direction, said lateral arms being adapted to open the cheeks wide and allow the sliding of a scanner on their body, said kit of dental instruments being characterized in that each of said instruments comprised therein is represented by a single body, meaning a monobloc.
A fastening system for releasably fixing a second component on a first component , such as attaching a covering component to a component of a vehicle body, having a first touch-and-close fastener part and a corresponding second touch-and-close fastener part and at least one spacer , which can be fixed on its one side on the first component by means of a first fastening means and is provided on its opposite side with the first touch-and-close fastener part , consisting of a substrate layer with fastener elements , which can be brought into releasable engagement with the corresponding second touch-and-close fastener part which, on its side which faces away from the fastener elements , can be fixed on the second component by means of a second fastening means , wherein the respective fastener elements of the first touch-and-close fastener part and corresponding second touch-and-close fastener part are formed as mushroom heads, wherein the mushroom heads of the first touch-and-close fastener part releasably mesh with the spaces formed by the mushroom heads of the second touch-and-close fastener part , wherein on the rear side of the second touch-and-close fastener part a second fastening means in the form of an adhesive is provided, and wherein a removable protective foil is used as protection for this adhesive layer , characterized in that the spacer can be fixed on the first component by means of a screw connection which forms the first fastening means and in that the spacer has a drilled hole for forming the screw connection, with this drilled hole having an opening edge, which faces the fastener elements and has a conical expansion in which the head of a countersunk head screw can be received in such a way that the upper end of the head is located below the fastener elements .
A system for delivering a fracturing fluid to a wellbore, the system comprising: one or more electric fracturing modules positioned on and removably mounted to a trailer , each fracturing module comprising a single electric motor paired to one or more electric pumps , wherein each fracturing module has a cuboid frame structure, wherein the frame structure has, at least in the floor region, a support structure to which the electric motor and the one or more electric pumps are attached, and wherein the support structure is configured so that the module can be removed from the trailer , wherein each fracturing module is configured to receive electric power generated at a well site, wherein the plurality of electric pumps provides fracturing fluid to the wellbore. one or more electric fracturing modules positioned on and removably mounted to a trailer , each fracturing module comprising a single electric motor paired to one or more electric pumps , wherein each fracturing module has a cuboid frame structure, wherein the frame structure has, at least in the floor region, a support structure to which the electric motor and the one or more electric pumps are attached, and wherein the support structure is configured so that the module can be removed from the trailer , wherein each fracturing module is configured to receive electric power generated at a well site, wherein the plurality of electric pumps provides fracturing fluid to the wellbore.
An apparatus for encoding a plurality of received radio frequency (RF) analog signals, the apparatus comprising: a plurality of pseudo-noise, PN, encoders for performing analog signal spreading and down-conversion, each PN encoder being configured to encode a respective received RF analog signal using a respective one of a plurality of mutually orthogonal PN complex codes and to output a respective PN-encoded analog signal; and a PN complex code source configured to provide the respective mutually orthogonal PN complex codes to the plurality of PN encoders , the PN complex code source including a code generator for generating multiple mutually orthogonal PN codes, a filter configured to filter out undesired harmonics of the multiple mutually orthogonal PN codes, and a complex modulator for modulating the multiple mutually orthogonal PN codes to generate the mutually orthogonal PN complex codes, wherein the complex modulator is configured to modulate the center frequency of each filtered mutually orthogonal PN code to a code modulation frequency. a plurality of pseudo-noise, PN, encoders for performing analog signal spreading and down-conversion, each PN encoder being configured to encode a respective received RF analog signal using a respective one of a plurality of mutually orthogonal PN complex codes and to output a respective PN-encoded analog signal; and a PN complex code source configured to provide the respective mutually orthogonal PN complex codes to the plurality of PN encoders , the PN complex code source including a code generator for generating multiple mutually orthogonal PN codes, a filter configured to filter out undesired harmonics of the multiple mutually orthogonal PN codes, and a complex modulator for modulating the multiple mutually orthogonal PN codes to generate the mutually orthogonal PN complex codes, wherein the complex modulator is configured to modulate the center frequency of each filtered mutually orthogonal PN code to a code modulation frequency.
A composite material enriched with electrochemically active Si, having the formula (I-M): (1-z) M + zSi (I-M) Where M is a dispersion composite matrix based on Ti and Ni, and at least one element selected from Si and/or Sn; And 0 <z≤0.70. Where M is a dispersion composite matrix based on Ti and Ni, and at least one element selected from Si and/or Sn; And 0 <z≤0.70.
A method of processing data in an IP Multimedia Subsystem, IMS, network, the IMS network comprising a Home Subscriber Server, HSS , an Interrogating Call Session Control Function, I-CSCF , a Serving Call Session Control Function, S-CSCF , and a further S-CSCF , the method comprising: at the I-CSCF , transmitting a request message to the HSS , the request message identifying a user of the IMS network ; at the I-CSCF , receiving an answer message from the HSS , the answer message comprising an indication that the user is assigned and not registered to the S-CSCF ; and at the I-CSCF , determining whether the S-CSCF or the further S-CSCF is a preferred S-CSCF for registration of the user in response to the answer message indicating that the user is assigned and not registered to the S-CSCF , and registering the user to the further S-CSCF if it is determined that the further S-CSCF is a preferred S-CSCF. at the I-CSCF , transmitting a request message to the HSS , the request message identifying a user of the IMS network ; at the I-CSCF , receiving an answer message from the HSS , the answer message comprising an indication that the user is assigned and not registered to the S-CSCF ; and at the I-CSCF , determining whether the S-CSCF or the further S-CSCF is a preferred S-CSCF for registration of the user in response to the answer message indicating that the user is assigned and not registered to the S-CSCF , and registering the user to the further S-CSCF if it is determined that the further S-CSCF is a preferred S-CSCF.