mhurhangee/patent-ind-claim-en huggingface dataset:
A method for processing data, applied to a data storage system comprising a primary server and at least two secondary servers, the method comprising: receiving a data update request sent by a user, wherein the data update request comprises data updates; sending a log update instruction separately to the primary server and the at least two secondary servers based on the data update request, so that the primary server and the at least two secondary servers perform a log update operation based on the log update instruction; characterized in that the method further comprises: when it is determined that the log update operation is completed, sending a data storage instruction separately to the primary server and a first secondary server in the at least two secondary servers, so that the primary server and the first secondary server perform, based on the data storage instruction, a storage operation on the data updates; determining a second secondary server from the at least two secondary servers; and when it is determined that the second secondary server completes the log update operation, sending a null-operation instruction to the second secondary server, wherein the null-operation instruction is used to instruct the second secondary server to perform no operation. receiving a data update request sent by a user, wherein the data update request comprises data updates; sending a log update instruction separately to the primary server and the at least two secondary servers based on the data update request, so that the primary server and the at least two secondary servers perform a log update operation based on the log update instruction; characterized in that the method further comprises: when it is determined that the log update operation is completed, sending a data storage instruction separately to the primary server and a first secondary server in the at least two secondary servers, so that the primary server and the first secondary server perform, based on the data storage instruction, a storage operation on the data updates; determining a second secondary server from the at least two secondary servers; and when it is determined that the second secondary server completes the log update operation, sending a null-operation instruction to the second secondary server, wherein the null-operation instruction is used to instruct the second secondary server to perform no operation.
A passenger control unit comprising: a push-button for control of a passenger service unit onboard a passenger vehicle, the push-button being configured to generate mechanical energy when pushed; a power assembly coupled to the push-button , and configured to convert the mechanical energy to electrical energy, and store the electrical energy; and control and communication circuitry coupled to the power assembly and powered solely from the electrical energy stored thereby, the control and communication circuitry including: a microprocessor coupled to the push-button , and configured to receive an indication when the push-button is pushed, and generate an instruction to control the passenger service unit in response thereto; and a communications interface coupled to the microprocessor and configured to wirelessly transmit the instruction to a control unit configured to effect control of the passenger service unit based thereon, wherein the microprocessor being configured to generate the instruction includes being configured to generate a keyed-hash message authentication code (HMAC), and include the HMAC in the instruction.. a push-button for control of a passenger service unit onboard a passenger vehicle, the push-button being configured to generate mechanical energy when pushed; a power assembly coupled to the push-button , and configured to convert the mechanical energy to electrical energy, and store the electrical energy; and control and communication circuitry coupled to the power assembly and powered solely from the electrical energy stored thereby, the control and communication circuitry including: a microprocessor coupled to the push-button , and configured to receive an indication when the push-button is pushed, and generate an instruction to control the passenger service unit in response thereto; and a communications interface coupled to the microprocessor and configured to wirelessly transmit the instruction to a control unit configured to effect control of the passenger service unit based thereon, wherein the microprocessor being configured to generate the instruction includes being configured to generate a keyed-hash message authentication code (HMAC), and include the HMAC in the instruction.. a microprocessor coupled to the push-button , and configured to receive an indication when the push-button is pushed, and generate an instruction to control the passenger service unit in response thereto; and a communications interface coupled to the microprocessor and configured to wirelessly transmit the instruction to a control unit configured to effect control of the passenger service unit based thereon, wherein the microprocessor being configured to generate the instruction includes being configured to generate a keyed-hash message authentication code (HMAC), and include the HMAC in the instruction..
An FBMC-based pilot sending method, comprising: for each transmit antenna port, inserting a pilot symbol group at four consecutive FBMC time-frequency resource locations, wherein the pilot symbol group comprises two auxiliary pilot symbols and two primary pilot symbols, and the two primary pilot symbols are immediately adjacent to each other and the two auxiliary pilot symbols are at either end; for each primary pilot symbol, determining a time-frequency resource location range in which the primary pilot symbol is interfered with; for each primary pilot symbol, obtaining transmit values of data symbols at time-frequency resource locations in the determined time-frequency resource location range in which the primary pilot symbol is interfered with; for each primary pilot symbol, obtaining, according to multiplex converter response data, interference coefficient values of interference caused at the time-frequency resource locations to the primary pilot symbol, wherein the time-frequency resource locations are in the determined time-frequency resource location range corresponding to the primary pilot symbol; calculating a transmit value of each auxiliary pilot symbol in the pilot symbol group according to the obtained interference coefficient values and the obtained transmit values of the data symbols at the time-frequency resource locations in the time-frequency resource location range in which each primary pilot symbol is interfered with; and sending the pilot symbol group, wherein the pilot symbol group comprises the calculated transmit values of the auxiliary pilot symbols. for each transmit antenna port, inserting a pilot symbol group at four consecutive FBMC time-frequency resource locations, wherein the pilot symbol group comprises two auxiliary pilot symbols and two primary pilot symbols, and the two primary pilot symbols are immediately adjacent to each other and the two auxiliary pilot symbols are at either end; for each primary pilot symbol, determining a time-frequency resource location range in which the primary pilot symbol is interfered with; for each primary pilot symbol, obtaining transmit values of data symbols at time-frequency resource locations in the determined time-frequency resource location range in which the primary pilot symbol is interfered with; for each primary pilot symbol, obtaining, according to multiplex converter response data, interference coefficient values of interference caused at the time-frequency resource locations to the primary pilot symbol, wherein the time-frequency resource locations are in the determined time-frequency resource location range corresponding to the primary pilot symbol; calculating a transmit value of each auxiliary pilot symbol in the pilot symbol group according to the obtained interference coefficient values and the obtained transmit values of the data symbols at the time-frequency resource locations in the time-frequency resource location range in which each primary pilot symbol is interfered with; and sending the pilot symbol group, wherein the pilot symbol group comprises the calculated transmit values of the auxiliary pilot symbols.
Elevator system comprising a safety brake for braking against a brake rail , oriented in a traveling direction , of an elevator system , the safety brake comprising a housing , a catch element and a brake pad , the brake pad and the catch element being mounted opposite the housing , the catch element being mounted on the housing in such a way that a feed movement of the catch element relative to the housing is possible, and this feed movement reducing an opening width (D) between the brake pad and the catch element , and the brake rail having a first projection and a second projection , characterized in that the catch element and the brake pad each have a notch in order to engage around a projection of a brake rail in the event of braking, the opening width (D) of the safety brake corresponding to at least twice the depth (t) of the notch , the first projection engaging in the notch in the brake pad at least during the braking process and the second projection engaging in the notch in the catch element at least during the braking process. the brake pad and the catch element being mounted opposite the housing , the catch element being mounted on the housing in such a way that a feed movement of the catch element relative to the housing is possible, and this feed movement reducing an opening width (D) between the brake pad and the catch element , and the brake rail having a first projection and a second projection , characterized in that the catch element and the brake pad each have a notch in order to engage around a projection of a brake rail in the event of braking, the opening width (D) of the safety brake corresponding to at least twice the depth (t) of the notch , the first projection engaging in the notch in the brake pad at least during the braking process and the second projection engaging in the notch in the catch element at least during the braking process.
A device-to-device communication method, which is used in Wireless Local Area Networks communication, comprising: receiving, by an access point, a request frame sent by a first station, the request frame is used to request a time window for performing device-to-device communication and the request frame includes a first field indicating a duration of the time window that is expected by the first station; determining, by the access point, a time window for device-to-device communication between stations; and sending, by the access point, a downlink frame comprising a second field to the first station, wherein the second field indicates the time window, and the time window is used for the first station and a second station having a device-to-device communication capability to perform device-to-device communication within the time window, wherein the downlink frame uses a frame format of a management frame. receiving, by an access point, a request frame sent by a first station, the request frame is used to request a time window for performing device-to-device communication and the request frame includes a first field indicating a duration of the time window that is expected by the first station; determining, by the access point, a time window for device-to-device communication between stations; and
A method for wireless communication at a base station , the method comprising: receiving , from a neighboring base station , information indicating a configuration of a portion of a subframe for carrying acknowledgment, ACK, or negative acknowledgment, NACK, information associated with a second type of data or control information to be transmitted by the neighboring base station to a user equipment, UE ; receiving , from the UE, in communication with the neighboring base station , ACK/NACK information associated with the second type of data or control information in accordance with said configuration; reducing a transmission power for a first type of data or control information during a subsequent subframe when the ACK/NACK information received from the UE indicates a negative acknowledgement; and transmitting with the reduced transmission power the first type of data or control information during the subsequent subframe, wherein the second type of data or control information is retransmitted by the neighboring base station to the UE in the subsequent subframe. receiving , from a neighboring base station , information indicating a configuration of a portion of a subframe for carrying acknowledgment, ACK, or negative acknowledgment, NACK, information associated with a second type of data or control information to be transmitted by the neighboring base station to a user equipment, UE ; receiving , from the UE, in communication with the neighboring base station , ACK/NACK information associated with the second type of data or control information in accordance with said configuration; reducing a transmission power for a first type of data or control information during a subsequent subframe when the ACK/NACK information received from the UE indicates a negative acknowledgement; and transmitting with the reduced transmission power the first type of data or control information during the subsequent subframe, wherein the second type of data or control information is retransmitted by the neighboring base station to the UE in the subsequent subframe.
A surgical device for clipping tissue, comprising: a housing comprising a motor configured to output rotary motions; a shaft extending from said housing; an end effector extending from said shaft, comprising: a first jaw rotatably coupled to said shaft; a second jaw rotatably coupled to said shaft; and a receiver; a clip magazine comprising a plurality of clips; a reciprocating firing drive operably responsive to said rotary motions, wherein said firing drive is configured to move a said clip from said clip magazine into said receiver; a crimping drive operably responsive to said rotary motions, wherein said crimping drive is configured to move said first jaw and said second jaw towards each other during a crimping stroke, and wherein a said clip positioned in said receiver is crimped during said crimping stroke; a strain gauge positioned in at least one of said first jaw and said second jaw, wherein said strain gauge is configured to measure the strain within said end effector during said crimping stroke; and a motor controller in communication with said motor and said strain gauge , wherein said motor controller is configured to adjust the output torque of said motor based on the measured strain in said strain gauge during said crimping stroke. a housing comprising a motor configured to output rotary motions; a shaft extending from said housing; an end effector extending from said shaft, comprising: a first jaw rotatably coupled to said shaft; a second jaw rotatably coupled to said shaft; and a receiver; a first jaw rotatably coupled to said shaft; a second jaw rotatably coupled to said shaft; and a receiver; a clip magazine comprising a plurality of clips; a reciprocating firing drive operably responsive to said rotary motions, wherein said firing drive is configured to move a said clip from said clip magazine into said receiver; a crimping drive operably responsive to said rotary motions, wherein said crimping drive is configured to move said first jaw and said second jaw towards each other during a crimping stroke, and wherein a said clip positioned in said receiver is crimped during said crimping stroke; a strain gauge positioned in at least one of said first jaw and said second jaw, wherein said strain gauge is configured to measure the strain within said end effector during said crimping stroke; and a motor controller in communication with said motor and said strain gauge , wherein said motor controller is configured to adjust the output torque of said motor based on the measured strain in said strain gauge during said crimping stroke.
A monoclonal antibody that binds human tau comprising a light chain variable region (LCVR) and a heavy chain variable region (HCVR), wherein the amino acid sequence of the LCVR is given by SEQ ID NO: 9 and the amino acid sequence of the HCVR is given by SEQ ID NO: 10.
A drilling machine for making an excavation (E) in ground (S) in a vertical drilling direction (DF), said excavation having walls and said drilling machine being a milling machine comprising: an anchor module having at least one anchor device for preventing the anchor module from moving in the drilling direction relative to the ground (S) by bearing against one of the walls (P1, P2) of the excavation (E); a drilling module provided with cutter members , the cutter members being connected to the anchor module while being movable in translation relative to the anchor module, the cutter members comprising two pairs of drums that are rotatable about axes of rotation (A1, A2) that are parallel, distinct, and perpendicular to the drilling direction; movement means for moving the cutter members in translation relative to the anchor module ; the drilling machine being characterized in that the drilling module is hinged relative to the anchor module , and in that the drilling module further comprises at least first path correction means configured to cause the drilling module to pivot relative to the anchor module about a pivot axis (X) perpendicular to the drilling direction (DF). an anchor module having at least one anchor device for preventing the anchor module from moving in the drilling direction relative to the ground (S) by bearing against one of the walls (P1, P2) of the excavation (E); a drilling module provided with cutter members , the cutter members being connected to the anchor module while being movable in translation relative to the anchor module, the cutter members comprising two pairs of drums that are rotatable about axes of rotation (A1, A2) that are parallel, distinct, and perpendicular to the drilling direction; movement means for moving the cutter members in translation relative to the anchor module ; the drilling machine being characterized in that the drilling module is hinged relative to the anchor module , and in that the drilling module further comprises at least first path correction means configured to cause the drilling module to pivot relative to the anchor module about a pivot axis (X) perpendicular to the drilling direction (DF).
Safety device (DS) for a first vehicle (V1) comprising analysis means (MAj) suitable for analysing its environment, in which control means (MC) are arranged, when said first vehicle (V1) is stationary with its ignition open and in the presence of a risk of collision of said first vehicle (V1) by a second vehicle (V2) travelling on the same lane (VC1) behind it in order to determine whether there exists in said analyzed environment at least one empty zone (ZVk) accessible by said first vehicle (V1), and, if so, in order to determine for the latter (V1) a trajectory in this empty zone (ZVk) suitable at least for limiting the consequences of this collision then to trigger a movement of said first vehicle (V1) along this determined trajectory while taking into account the presence of a third vehicle (V3) travelling on another lane (VC3), in the environment of the first vehicle, characterized in that said control means (MC) are arranged in the event of the absence of an empty zone (ZVk) in front of said first vehicle (V1) but of the determination of an empty zone (ZVk) on a rear lateral part of said first vehicle (V1), to determine for the latter (V1) a curvilinear trajectory towards the rear in this determined empty zone (ZVk), so that said second vehicle collides obliquely with a lateral side of said first vehicle (V1).
A composite solar collector adapted to absorb thermal heating from the sun, wherein said solar collector comprises at least one hollow section adapted to house a medium, wherein the solar collector is a standalone mobile solar collector system for heating the medium, comprising a self-supporting structure produced from a composite material constituted by a mixture of at least a first and second material, wherein said first and second materials are different materials, characterized in that said first and second materials have equal or substantially equal coefficients of elasticity and wherein one of said first and second materials in said composite solar collector has a whirl or bogie spring shape.
A sensor for measuring a gas concentration of a target gas in a sample of ambient air, the sensor comprising a first gas sensitive component comprising a first gas sensitive layer being arranged between a first pair of measuring electrodes , the first gas sensitive layer comprising a metal oxide semiconductor; a second gas sensitive component comprising a second gas sensitive layer being arranged between a second pair of measuring electrodes (161, the second gas sensitive layer comprising a metal oxide semiconductor; one or more heating elements configured to heat the first gas sensitive layer and the second gas sensitive layer ; wherein the first gas sensitive component is configured to measure the gas concentration of the target gas in a first concentration band; and the second gas sensitive component is configured to measure the gas concentration of the target gas in a second concentration band, wherein the first concentration band is different from the second concentration band; one or more layer parameters of the first gas sensitive layer and the second gas sensitive layer are configured to operate the sensor for both the measuring of the first concentration band and for the measuring of the second concentration band in a respective transition regime, the transition regime being situated between a perturbation regime and a saturation regime, wherein the transition regime is characterized by a higher sensitivity to the target gas than the perturbation regime and the saturation regime; and the first gas sensitive component and the second gas sensitive component differ in at least one of the one or more layer parameters.
A cloud streaming server , comprising: a capture unit configured to capture a changed region contained in a changed frame in comparison with a previous frame; an encoding unit configured to select a still image compression technique by considering one or more of a size of the changed region and an image type corresponding to the changed region and to perform a still image encoding of the changed region by using the selected still image compression technique; and a sending unit configured to perform a cloud streaming service based on a still image by sending the still-image-encoded changed region to a user, wherein the encoding unit is further configured, considering the size of the changed region, if the size of the changed region is equal to or greater than a reference value, to select the still image compression technique by considering the image type corresponding to the changed region. a capture unit configured to capture a changed region contained in a changed frame in comparison with a previous frame; an encoding unit configured to select a still image compression technique by considering one or more of a size of the changed region and an image type corresponding to the changed region and to perform a still image encoding of the changed region by using the selected still image compression technique; and a sending unit configured to perform a cloud streaming service based on a still image by sending the still-image-encoded changed region to a user, wherein the encoding unit is further configured, considering the size of the changed region, if the size of the changed region is equal to or greater than a reference value, to select the still image compression technique by considering the image type corresponding to the changed region.