mhurhangee/ep-ind-claims huggingface dataset:
A specimen liquid sensor apparatus comprising: a reader; and a specimen liquid sensor configured to be detachably attached to the reader, the reader comprising a control unit, the specimen liquid sensor comprising: a base; and a sensor chip located on an upper surface of the base, wherein the sensor chip comprises a piezoelectric substrate located on the upper surface of the base, and a plurality of SAW elements (50A, 50B) located in a flow direction of the specimen liquid on the upper surface of the piezoelectric substrate, and wherein each of the plurality of SAW elements (50A, 50B) comprises a sensitive part for sensing a property of the specimen liquid, characterized in that the control unit is configured to set the data reading interval t of the SAW elements (50A, 50B) such that L > t · V, where L is the distance between two SAW elements (50A, 50B) of the plurality of SAW elements (50A, 50B) and V denotes the flow rate of the specimen liquid, wherein the sensitive parts of the said two SAW elements (50A, 50B) are different from each other in that one SAW element of the two SAW elements (50A, 50B) further comprises a specific bonding substance configured to bond with a detection target included in the specimen liquid, and the other SAW element does not comprise the specific bonding substance. a reader; and a specimen liquid sensor configured to be detachably attached to the reader, the reader comprising a control unit, the specimen liquid sensor comprising: a base; and a sensor chip located on an upper surface of the base, a base; and a sensor chip located on an upper surface of the base, wherein the sensor chip comprises a piezoelectric substrate located on the upper surface of the base, and a plurality of SAW elements (50A, 50B) located in a flow direction of the specimen liquid on the upper surface of the piezoelectric substrate, and a piezoelectric substrate located on the upper surface of the base, and a plurality of SAW elements (50A, 50B) located in a flow direction of the specimen liquid on the upper surface of the piezoelectric substrate, and wherein each of the plurality of SAW elements (50A, 50B) comprises a sensitive part for sensing a property of the specimen liquid, characterized in that the control unit is configured to set the data reading interval t of the SAW elements (50A, 50B) such that L > t · V, where L is the distance between two SAW elements (50A, 50B) of the plurality of SAW elements (50A, 50B) and V denotes the flow rate of the specimen liquid, wherein the sensitive parts of the said two SAW elements (50A, 50B) are different from each other in that one SAW element of the two SAW elements (50A, 50B) further comprises a specific bonding substance configured to bond with a detection target included in the specimen liquid, and the other SAW element does not comprise the specific bonding substance.
An implant for use with a bone fastener, comprising: a top end and a bottom end; an exterior surface extending from the top end to the bottom end; a central bore extending from the top end to the bottom end along a central axis; a slot extending through the exterior surface and intersecting with the central bore of the implant; and a rim positioned at the top end and extending around at least a portion of the circumference of the exterior surface, characterized in that the slot is angled relative to the central axis and configured to allow the implant to be inserted onto the bone fastener from a side of the bone fastener and to prevent the implant from being forced off the bone fastener during insertion into a patient's bone. a top end and a bottom end; an exterior surface extending from the top end to the bottom end; a central bore extending from the top end to the bottom end along a central axis; a slot extending through the exterior surface and intersecting with the central bore of the implant; and a rim positioned at the top end and extending around at least a portion of the circumference of the exterior surface,
A vehicle control device comprising: an engine; and a clutch configured to connect and disconnect a power transmission path between the engine and a drive wheel according to a supplied hydraulic pressure, wherein the vehicle control device is configured to carry out: neutral control that controls the hydraulic pressure supplied to the clutch to a neutral control pressure for placing the clutch in a semi-engaged state while a vehicle stops; and characterised in that it is also configured to carry out: inertia control that causes the vehicle to carry out an inertia travelling by disconnecting the power transmission path between the engine and the drive wheel by releasing the clutch during travelling of the vehicle, and after the clutch has been released in the inertia control, the vehicle control device controls the hydraulic pressure supplied to the clutch to the same hydraulic pressure as the neutral control pressure while the inertia control is executed. an engine; and a clutch configured to connect and disconnect a power transmission path between the engine and a drive wheel according to a supplied hydraulic pressure, wherein the vehicle control device is configured to carry out: neutral control that controls the hydraulic pressure supplied to the clutch to a neutral control pressure for placing the clutch in a semi-engaged state while a vehicle stops; and characterised in that it is also configured to carry out: inertia control that causes the vehicle to carry out an inertia travelling by disconnecting the power transmission path between the engine and the drive wheel by releasing the clutch during travelling of the vehicle, and after the clutch has been released in the inertia control, the vehicle control device controls the hydraulic pressure supplied to the clutch to the same hydraulic pressure as the neutral control pressure while the inertia control is executed. neutral control that controls the hydraulic pressure supplied to the clutch to a neutral control pressure for placing the clutch in a semi-engaged state while a vehicle stops; and characterised in that it is also configured to carry out: inertia control that causes the vehicle to carry out an inertia travelling by disconnecting the power transmission path between the engine and the drive wheel by releasing the clutch during travelling of the vehicle, and inertia control that causes the vehicle to carry out an inertia travelling by disconnecting the power transmission path between the engine and the drive wheel by releasing the clutch during travelling of the vehicle, and after the clutch has been released in the inertia control, the vehicle control device controls the hydraulic pressure supplied to the clutch to the same hydraulic pressure as the neutral control pressure while the inertia control is executed.
An isolated polypeptide having cellulolytic enhancing activity, selected from the group consisting of a polypeptide having at least 90% sequence identity to the mature polypeptide of SEQ ID NO: 2.
A terminal comprising: a control section that determines an uplink control channel format for transmission of uplink control information based on a number of symbols of an uplink control channel from a first uplink control channel format that uses a cyclic shift that depends on the uplink control information, and a second uplink control channel format that does not use a cyclic shift that depends on the uplink control information, and a transmission section that transmits the uplink control information using the uplink control channel format, wherein, when the uplink control channel format is the first uplink control channel format, the control section does not map a demodulation reference signal within first resources that fare Z allocated to the uplink control channel and the control section maps a sequence generated by the cyclic shift of a base sequence within the first resources, when the uplink control channel format is the second uplink control channel format, the control section maps the uplink control information and a demodulation reference signal within second resources that pare Z assigned to the uplink control channel, and the uplink control information and the demodulation reference signal are time-division-multiplexed over the symbols of the uplink control channel, and wherein when the uplink control information transmitted using the first uplink control channel format comprises 2 bits,an interval between two successive ones of four cyclic shifts is a constant and the four cyclic shifts are based on four values of the 2 bits respectively. a control section that determines an uplink control channel format for transmission of uplink control information based on a number of symbols of an uplink control channel from a first uplink control channel format that uses a cyclic shift that depends on the uplink control information, and a second uplink control channel format that does not use a cyclic shift that depends on the uplink control information, and a transmission section that transmits the uplink control information using the uplink control channel format, wherein, when the uplink control channel format is the first uplink control channel format, the control section does not map a demodulation reference signal within first resources that fare Z allocated to the uplink control channel and the control section maps a sequence generated by the cyclic shift of a base sequence within the first resources, when the uplink control channel format is the second uplink control channel format, the control section maps the uplink control information and a demodulation reference signal within second resources that pare Z assigned to the uplink control channel, and the uplink control information and the demodulation reference signal are time-division-multiplexed over the symbols of the uplink control channel, and wherein when the uplink control information transmitted using the first uplink control channel format comprises 2 bits,an interval between two successive ones of four cyclic shifts is a constant and the four cyclic shifts are based on four values of the 2 bits respectively.
An olefin polymerization process, wherein propylene and 1-butene and optionally ethylene are reacted in the presence of a Ziegler-Natta catalyst system so as to obtain a polypropylene, wherein the polypropylene comprises 1-butene-derived comonomer units in an amount of from 5 to 20 wt% and optionally ethylene-derived comonomer units in an amount of up to 3 wt%, and the Ziegler-Natta catalyst system comprises an external donor of the following formula (R 3) z (R 2 O) y Si(R 1) x wherein - x is 1 or 2; y is 2 or 3; and z is 0 or 1; under the provision that x+y+z=4; - R 1 is an organic residue of the following formula wherein - the carbon atom bonded to the Si atom is a tertiary carbon atom and each of the residues R 4 and R 5 bonded to the tertiary carbon atom is, independently from each other, C 1-2 alkyl; - each of the residues R 6 and R 7 is, independently from each other, C 1-2 alkyl; - R 8 is hydrogen or a C 1-4 alkyl; - R 2 is C 1-2 alkyl; - R 3 is C 1-4 alkyl, preferably methyl or ethyl. - x is 1 or 2; y is 2 or 3; and z is 0 or 1; under the provision that x+y+z=4; - R 1 is an organic residue of the following formula wherein - the carbon atom bonded to the Si atom is a tertiary carbon atom and each of the residues R 4 and R 5 bonded to the tertiary carbon atom is, independently from each other, C 1-2 alkyl; - each of the residues R 6 and R 7 is, independently from each other, C 1-2 alkyl; - R 8 is hydrogen or a C 1-4 alkyl; - the carbon atom bonded to the Si atom is a tertiary carbon atom and each of the residues R 4 and R 5 bonded to the tertiary carbon atom is, independently from each other, C 1-2 alkyl; - each of the residues R 6 and R 7 is, independently from each other, C 1-2 alkyl; - R 8 is hydrogen or a C 1-4 alkyl; - R 2 is C 1-2 alkyl; - R 3 is C 1-4 alkyl, preferably methyl or ethyl.
A method for decoding data, comprising: demodulating a voltage or current waveform in each tank circuit of a plurality of inductive power transfer circuits to obtain at least one demodulated signal from each tank circuit, and characterised by: capturing a bit sequence from each demodulated signal by clocking signal state of each demodulated signal through a direct memory access, DMA, circuit; streaming bit sequences received from the DMA circuit into a plurality of data streams; and decoding one or more messages from the plurality of data streams. capturing a bit sequence from each demodulated signal by clocking signal state of each demodulated signal through a direct memory access, DMA, circuit; streaming bit sequences received from the DMA circuit into a plurality of data streams; and decoding one or more messages from the plurality of data streams.
A portable device comprising: a battery; a controller, (32,222) operatively coupled to the battery, and responsive to (i) a remaining power capacity of a battery and (ii) a power consumption rate of the portable device and based on prioritized functional processing capability features of the portable device, to dynamically control functional processing capability features of the device to provide power for a higher priority feature at the expense of a lower priority functional processing capability feature consistent with the prioritized functional processing capability features, and wherein to dynamically control the functional processing capability features the portable device is characterised by further comprising, that when a low received signal strength is detected, to increase the power consumption of the transmitter by increasing the transmit power and shut off applications or control, at an application level, the operation of an application to reduce the power consumed by one or more applications to at least partly offset the increased transmit power. a battery; a controller, (32,222) operatively coupled to the battery, and responsive to (i) a remaining power capacity of a battery and (ii) a power consumption rate of the portable device and based on prioritized functional processing capability features of the portable device, to dynamically control functional processing capability features of the device to provide power for a higher priority feature at the expense of a lower priority functional processing capability feature consistent with the prioritized functional processing capability features, and wherein to dynamically control the functional processing capability features the portable device is characterised by further comprising, that when a low received signal strength is detected, to increase the power consumption of the transmitter by increasing the transmit power and shut off applications or control, at an application level, the operation of an application to reduce the power consumed by one or more applications to at least partly offset the increased transmit power.
An information processing system based on Internet of Things, wherein the system comprises a server device, a first device, and a second device, wherein the first device is an Internet of Things device, the second device is an Internet of Things device, the first device and the second device are not the same, and the first device and the second device have a binding relationship, wherein the first device is configured to: when a first acquisition instruction is triggered, acquire biometric feature information, and send the acquired biometric feature information to the server device; the second device is configured to: when a second acquisition instruction is triggered, acquire body movement information, and send the acquired body movement information to the server device; and the server device is configured to: receive the biometric feature information sent by the first device, identify, according to the biometric feature information, a user corresponding to the biometric feature information; after identifying the user, receive the body movement information sent by the second device; and perform a transaction or operation for the user according to the body movement information, wherein the first device is configured to receive, from the server device, an identification result obtained by identifying the user, and in response to receiving the identification result, trigger the second acquisition instruction; or wherein, after identifying the user according to the biometric feature information, the server device is configured to trigger the second acquisition instruction. receive the biometric feature information sent by the first device, identify, according to the biometric feature information, a user corresponding to the biometric feature information; after identifying the user, receive the body movement information sent by the second device; and perform a transaction or operation for the user according to the body movement information,
A suspension system for a turbomachine, comprising a beam intended to be attached to a pylon of an aircraft, and a cylindrical part articulated on a ball joint housing, the ball joint housing comprising a body and a ball joint nut articulated on the body, the cylindrical part being mounted so as to pivot about its axis in the ball joint nut, characterized in that the cylindrical part is intended to be integral with a fixed part of the turbomachine, the body of the ball joint housing being integral with the beam, characterized in that the cylindrical part is mounted, at least in part, in a housing of the body, a clearance (j1, j2) being provided between the said cylindrical part and the body.
A high-frequency module comprising a plurality of switch elements (21, 22) each having an antenna connection terminal (101, 102) and a plurality of switching connection terminals(Pi11, Pi12, Pi13, Pi14, Pi21, Pi22, Pi23, Pi24), and a multilayer body on which the plurality of switch elements (21, 22) are mounted, wherein a filter component (31, 32, 411, 412, 421, 422) mounted on the multilayer body or a filter circuit formed of an inner layer electrode of the multilayer body is connected to any of the switching connection terminals (Pi11, Pi12, Pi13, Pi14, Pi21, Pi22, Pi23, Pi24), and wherein switching connection terminals (Pi14, Pi24) of the plurality of switch elements (Pi11, Pi12, Pi13, Pi14, Pi21, Pi22, Pi23, Pi24) that are not connected to the filter component or the filter circuit are directly connected to an inner layer ground electrode (DP G01, DP G11, DP G12) formed in the multilayer body, wherein the plurality of switch elements (21, 22) are mounted on a front surface of the multilayer body, wherein switching connection terminals (Pi14, Pi24) that are not connected to the filter component or the filter circuit are directly connected to the inner layer ground electrode (DP G01, DP G11, DP G12) by conductive via holes (131, 132, 133, 134), and wherein the inner layer ground electrode (DP G11, DP G12), which is directly connected with conductive via holes (131, 132, 133, 134) to switching connection terminals (Pi14, Pi24) of the switch elements (21, 22) that are not connected to the filter component or the filter circuit, includes portions (DP G11, DP G12) that are electrically isolated from each other and to each of which one of the switch elements (21, 22) is connected.
A method for transmitting a hybrid automatic repeat request-acknowledgment/negative acknowledgment, HARQ-ACK/NACK, by a user equipment, UE, in a wireless communication system, the method comprising: identifying a first set including at least one HARQ-ACK/NACK timing value based on at least one of a higher layer signaling from a base station or a pre-configuration, wherein each timing value in the first set indicates a time difference between a downlink time unit for physical downlink shared channel, PDSCH, reception and an uplink time unit in which a HARQ-ACK/NACK feedback is transmitted; determining, based on the first set including the at least one HARQ-ACK/NACK timing value, a second set including at least one downlink time unit for PDSCH reception, wherein HARQ-ACK/NACK feedback for each downlink time unit included in the second set can be transmitted in a same uplink time unit; generating a codebook for the HARQ-ACK/NACK feedback based on a size of the codebook, wherein the size of the codebook is identified based on a size of the second set and a number of one or more HARQ-ACK/NACK bits corresponding to each downlink time unit included in the second set, wherein the number of one or more HARQ-ACK/NACK bits corresponding to each downlink time unit is semi-statically configured, and determined based on a maximum number of code block groups, CBGs in each downlink time unit; and transmitting, to the base station, the codebook for the HARQ-ACK/NACK feedback in said same uplink time unit. identifying a first set including at least one HARQ-ACK/NACK timing value based on at least one of a higher layer signaling from a base station or a pre-configuration, wherein each timing value in the first set indicates a time difference between a downlink time unit for physical downlink shared channel, PDSCH, reception and an uplink time unit in which a HARQ-ACK/NACK feedback is transmitted; determining, based on the first set including the at least one HARQ-ACK/NACK timing value, a second set including at least one downlink time unit for PDSCH reception, wherein HARQ-ACK/NACK feedback for each downlink time unit included in the second set can be transmitted in a same uplink time unit; generating a codebook for the HARQ-ACK/NACK feedback based on a size of the codebook, wherein the size of the codebook is identified based on a size of the second set and a number of one or more HARQ-ACK/NACK bits corresponding to each downlink time unit included in the second set, wherein the number of one or more HARQ-ACK/NACK bits corresponding to each downlink time unit is semi-statically configured, and determined based on a maximum number of code block groups, CBGs in each downlink time unit; and transmitting, to the base station, the codebook for the HARQ-ACK/NACK feedback in said same uplink time unit.
A medical-treatment electrode assembly comprising: a) a flexible tube including a sidewall having an outer surface and including a distal end insertable into a patient; and b) a first medical-treatment flexible electrode fixedly supported on the outer surface of the flexible tube proximate the distal end, contactable with patient tissue, and operatively connectable to a medical radio-frequency generator; wherein the sidewall includes a through hole disposed proximate the distal end and arranged for fluid communication with an aspiration port of a flexible endoscope; wherein the first medical-treatment flexible electrode includes a through hole aligned with the through hole of the sidewall. a) a flexible tube including a sidewall having an outer surface and including a distal end insertable into a patient; and b) a first medical-treatment flexible electrode fixedly supported on the outer surface of the flexible tube proximate the distal end, contactable with patient tissue, and operatively connectable to a medical radio-frequency generator;