mhurhangee/ep-ind-claims huggingface dataset:
Process for manufacturing an electric cable comprising: - at least one elongated electric conductor, and - a multilayer insulation surrounding said electric conductor, said multilayer insulation comprising a first semiconducting layer and an electrically insulating layer, said two layers being made from a silicone rubber based composition, characterized in that the process comprises the step of co-extruding the first semiconducting layer and the electrically insulating layer. - at least one elongated electric conductor, and - a multilayer insulation surrounding said electric conductor, said multilayer insulation comprising a first semiconducting layer and an electrically insulating layer, said two layers being made from a silicone rubber based composition,
A polyacrylic acid (salt)-type water-absorbing resin having a stable carbon isotope ratio (δ 13 C) measured by accelerator mass spectrometry method of from -20%o to -5‰, wherein said stable carbon isotope ratio (δ 13 C) is determined by the following mathematic expression: δ C 13 ‰ = C 13 / C 12 sample / C 13 / C 12 PDB − 1.0 × 1000 wherein the term ( 13 C/ 12 C) sample represents a stable isotope ratio of a sample of said polyacrylic acid (salt)-type water-absorbing resin and the term ( 13 C/ 12 C) PDB represents a stable isotope ratio of Pee Dee Belemnite as defined in the specification, said method for calculating the stable carbon isotope ratio (δ 13 C) comprising a step of converting a sample into CO 2 by a pretreatment method (ASTM D6866/Method B) defined by American Society of Testing and Materials, subsequently graphitizing CO 2 by complete reduction treatment using an iron catalyst, and subjecting the graphitized sample to accelerator mass spectrometry, wherein said polyacrylic acid (salt)-type water-absorbing resin is surface-crosslinked with an organic surface-crosslinking agent and coated with silicon dioxide particles.
An occupant restraining device for a vehicle, comprising: a time to collision estimating section that estimates a time to collision, the time to collision being a time until a front collision with a vehicle ahead; a force imparting portion that imparts force toward a vehicle rear side to a vehicle occupant of an own vehicle; a gap enlarging portion that enlarges a gap between the vehicle occupant and a seatback of a vehicle seat; a gap estimating section that estimates a size of the gap between the vehicle occupant and the seatback; and a control section that, in a case in which the gap enlarging portion operates, controls a timing of a start of operation of the force imparting portion on the basis of the time to collision estimated by the time to collision estimating section and the size of the gap estimated by the gap estimating section. a time to collision estimating section that estimates a time to collision, the time to collision being a time until a front collision with a vehicle ahead; a force imparting portion that imparts force toward a vehicle rear side to a vehicle occupant of an own vehicle; a gap enlarging portion that enlarges a gap between the vehicle occupant and a seatback of a vehicle seat; a gap estimating section that estimates a size of the gap between the vehicle occupant and the seatback; and a control section that, in a case in which the gap enlarging portion operates, controls a timing of a start of operation of the force imparting portion on the basis of the time to collision estimated by the time to collision estimating section and the size of the gap estimated by the gap estimating section.
A fluorescent material having a composition formula represented as (Gd 1-α-β-γ L α Ce β Tb γ) 3+a (Al 1-u-v Ga u Sc v) 5-b O 12 (L is at least one element selected from Y and Lu), where a, b, α, β, γ, u and v satisfy the following ranges: 0 < a ≤ 0.07, 0 < b ≤ 0.07, 0 < α ≤ 0.15, 0.0003 ≤ β ≤ 0.004, 0.03 ≤ γ ≤ 0.15, 0.35 ≤ u ≤ 0.70, and 0.003 ≤ v ≤ 0.02
A method comprising: receiving, by a wireless device, one or more radio resource control messages comprising: a power saving radio network temporary identifier, PS-RNTI, for a downlink control information, DCI, comprising a plurality of blocks, notifying power saving information; a location parameter for the wireless device; and configuration parameters of one or more secondary cells; receiving, based on the PS-RNTI, a first DCI comprising a first plurality of blocks, wherein: the PS-RNTI is used for scrambling the DCI which is for power saving mode; the location parameter indicates a first location of a first block, of the first plurality of blocks, for the wireless device; and the first block comprises a dormancy indication for at least one secondary cell of the one or more secondary cells; and transitioning the at least one secondary cell to a dormant state in response to the dormancy indication indicating the dormant state. receiving, by a wireless device, one or more radio resource control messages comprising: a power saving radio network temporary identifier, PS-RNTI, for a downlink control information, DCI, comprising a plurality of blocks, notifying power saving information; a location parameter for the wireless device; and configuration parameters of one or more secondary cells; a power saving radio network temporary identifier, PS-RNTI, for a downlink control information, DCI, comprising a plurality of blocks, notifying power saving information; a location parameter for the wireless device; and configuration parameters of one or more secondary cells; receiving, based on the PS-RNTI, a first DCI comprising a first plurality of blocks, wherein: the PS-RNTI is used for scrambling the DCI which is for power saving mode; the location parameter indicates a first location of a first block, of the first plurality of blocks, for the wireless device; and the first block comprises a dormancy indication for at least one secondary cell of the one or more secondary cells; and the PS-RNTI is used for scrambling the DCI which is for power saving mode; the location parameter indicates a first location of a first block, of the first plurality of blocks, for the wireless device; and the first block comprises a dormancy indication for at least one secondary cell of the one or more secondary cells; and transitioning the at least one secondary cell to a dormant state in response to the dormancy indication indicating the dormant state.
A first connector part (110, 310, 410)for establishing a fluid connection with a second connector part according to any of claims 4 to 7, wherein the first connector part is part of an infusion site interface comprising an infusion cannula; a valve (1 11, 311, 411) for establishing a fluid connection, wherein the valve comprises a valve seat (112, 312, 412), the valve seat comprising a valve chamber (116, 316, 416), and a circular opening with a circumferential sealing lip (114, 314, 414); a valve member (113, 313, 413), the valve member being provided in the valve chamber, and being able to sealingly close the circular opening of the valve seat when being pushed against the circular opening; and a resilient element (115, 315, 415) that subjects the valve member to a bias force pushing the valve member against the circular opening of the valve seat; wherein the valve seat further comprises a circumferential wall around the circular opening, located on the side of the circular opening opposite to the valve chamber; characterized in that the circumferential wall forms a concave receptacle (118, 318, 418) for receiving a corresponding connection cone of a second connector part, the concave receptacle having the shape of a truncated cone and facing away from the valve chamber, the circular opening being located in the centre of the concave receptacle, and wherein the concave receptacle has a first cone angle α in regard to a longitudinal axis of the cone, wherein the first cone angle α is larger than a second cone angle β of the second connector part and the difference between first cone angle α and second cone angle β is smaller or equal about 20°, advantageously is smaller or equal about 15°, and more advantageously lies between about 5° and about 15°.
A high-strength hot-rolled steel sheet which has an excellent ductility and a stretch-flangeability, the steel sheet consisting of, by mass percentage: 0.05 to 0.4% of C; 0.1 to 2.5% of Si; 1.0 to 3.5% of Mn; 0.001 to 0.03% of P; 0.0001 to 0.01% of S; 0.001 to 2.5% of Al; 0.0001 to 0.01% of N; 0.0001 to 0.008% of O; and optionally one or more of 0.005 to 0.09% of Ti; 0.005 to 0.09% of Nb; 0.0001 to 0.01% of B; 0.01 to 2.0% of Cr; 0.01 to 2.0% of Ni; 0.01 to 2.0% of Cu; 0.01 to 0.8% of Mo; 0.005 to 0.09% of V; one or more of Ca, Ce, Mg, and REM at 0.0001 to 0.5% by mass percentage in total, and a remainder composed of iron and inevitable impurities, wherein a steel sheet structure contains by volume fraction 10 to 45% of a ferrite phase, 10 to 50% of a tempered martensite phase, and a remaining hard phase, wherein when a plurality of measurement regions with diameters of 1 μm or less are set in a range from 1/8 to 3/8 of a thickness of the steel sheet, hardness measurement values in the plurality of measurement regions are arranged in ascending order to obtain a hardness distribution, an integer N0.02 which is a number obtained by multiplying a total number of the hardness measurement values by 0.02 and, if present, by rounding up a decimal number, is obtained, a hardness of a measurement value which is an N0.02-th largest value from a smallest hardness measurement value is regarded as a 2% hardness, an integer N0.98 which is a number obtained by multiplying the total number of the hardness measurement values by 0.98 and, if present, by rounding down the decimal number is obtained, and a hardness of a measurement value which is an N0.98-th largest value from the smallest hardness measurement value is regarded as a 98% hardness, the 98% hardness is 1.5 or more times as high as the 2% hardness, wherein a kurtosis K* of the hardness distribution between the 2% hardness and the 98% hardness is equal to or more than -1.2 and equal to or less than -0.4, wherein an average crystal grain size in the steel sheet structure is 10μm or less, wherein the remaining hard phase includes 10 to 60% of one or both of a bainitic ferrite phase and a bainite phase and 10% or less of a fresh martensite phase by volume fractions, and wherein a difference between a maximum value and a minimum value of Mn concentration in a base iron in a thickness range from 1/8 to 3/8 of the steel sheet is equal to or more than 0.4% and equal to or less than 3.5% when converted into the mass percentage. 0.05 to 0.4% of C; 0.1 to 2.5% of Si; 1.0 to 3.5% of Mn; 0.001 to 0.03% of P; 0.0001 to 0.01% of S; 0.001 to 2.5% of Al; 0.0001 to 0.01% of N; 0.0001 to 0.008% of O; and optionally one or more of 0.005 to 0.09% of Ti; 0.005 to 0.09% of Nb; 0.0001 to 0.01% of B; 0.01 to 2.0% of Cr; 0.01 to 2.0% of Ni; 0.01 to 2.0% of Cu; 0.01 to 0.8% of Mo; 0.005 to 0.09% of V;
A method, comprising: positioning an overmolding mold relative to a dental tray including a trough defined by inner and outer sidewalls (116, 118); and overmolding an oral treatment composition (14, 114) on at least a portion of one or both of the inner and outer sidewalls (116, 118) of the dental tray; wherein the oral treatment composition (14, 114) includes at least one therapeutic agent effective for treating an oral condition; and the oral treatment composition (14, 114) includes at least one hydrophilic polymer. positioning an overmolding mold relative to a dental tray including a trough defined by inner and outer sidewalls (116, 118); and overmolding an oral treatment composition (14, 114) on at least a portion of one or both of the inner and outer sidewalls (116, 118) of the dental tray; wherein the oral treatment composition (14, 114) includes at least one therapeutic agent effective for treating an oral condition; and the oral treatment composition (14, 114) includes at least one hydrophilic polymer.
A circuit comprising: an input node configured to receive a current-mode input signal comprising a bias current; an input stage including an input device communicatively coupled to the input node and configured to receive the current-mode input signal at the input node; bias circuitry communicatively coupled to the input stage at the input node and configured to: provide a bias current for the input device; and remove at least a portion of the bias current of the current-mode input signal through circuitry associated with the input node such that the current-mode input signal is received by the input device with at least a portion of the bias current of the current-mode input signal removed; a cascode stage communicatively coupled to the input stage and the bias circuitry at the input node and configured to provide a low input impedance to the received current-mode input signal; and an output stage communicatively coupled to the input stage and configured to output a current-mode output signal based on the current-mode input signal. an input node configured to receive a current-mode input signal comprising a bias current; an input stage including an input device communicatively coupled to the input node and configured to receive the current-mode input signal at the input node; bias circuitry communicatively coupled to the input stage at the input node and configured to: provide a bias current for the input device; and remove at least a portion of the bias current of the current-mode input signal through circuitry associated with the input node such that the current-mode input signal is received by the input device with at least a portion of the bias current of the current-mode input signal removed; a cascode stage communicatively coupled to the input stage and the bias circuitry at the input node and configured to provide a low input impedance to the received current-mode input signal; and an output stage communicatively coupled to the input stage and configured to output a current-mode output signal based on the current-mode input signal. provide a bias current for the input device; and remove at least a portion of the bias current of the current-mode input signal through circuitry associated with the input node such that the current-mode input signal is received by the input device with at least a portion of the bias current of the current-mode input signal removed; a cascode stage communicatively coupled to the input stage and the bias circuitry at the input node and configured to provide a low input impedance to the received current-mode input signal; and an output stage communicatively coupled to the input stage and configured to output a current-mode output signal based on the current-mode input signal.
An apparatus for assembling a heater assembly for a nicotine pod assembly, the apparatus comprising: a base; a wick feed extending toward the base and defining a channel configured to receive a wick structured to draw a nicotine pre-vapor formulation via capillary action; a slide configured to move along a plane on a top face of the base; and a holder disposed on the top face of the base, wherein the holder is configured to secure a support of the heater assembly, the slide includes a front face that is orthogonal to the top face of the base, and the slide is configured to contact a finger of a heater on the support to move the finger to a position so as to compress the wick. a base; a wick feed extending toward the base and defining a channel configured to receive a wick structured to draw a nicotine pre-vapor formulation via capillary action; a slide configured to move along a plane on a top face of the base; and a holder disposed on the top face of the base, wherein the holder is configured to secure a support of the heater assembly, the slide includes a front face that is orthogonal to the top face of the base, and the slide is configured to contact a finger of a heater on the support to move the finger to a position so as to compress the wick.
A method for peer-to-peer data replication, comprising: Generating, by a master node, a first commit redo record attached with a commit sequence number, CSN, when a first write operation happens on a first physical entity in the master node, wherein the master node is preset with at least two physical entities including the first physical entity and a second physical entity and the master node is connected to at least two subscriber nodes including a first subscriber node and a second subscriber node, wherein the CSN attached in the first commit redo record is used for indicating the sequence of the first write operation within the master node; and Pushing, by the master node, the first commit redo record attached with the CSN to a first subscriber node corresponding to the first physical entity based on mapping relationships between the physical entities and the subscriber nodes, wherein the first commit redo record is used for replicating data of the first write operation from the master node to the first subscriber node corresponding to the first physical entity, and then to the second subscriber node through pushing, by the first subscriber node, the received first commit redo record, to the second subscriber node; wherein, the physical entities are table space, device files, pages and/or partitions. Generating, by a master node, a first commit redo record attached with a commit sequence number, CSN, when a first write operation happens on a first physical entity in the master node, wherein the master node is preset with at least two physical entities including the first physical entity and a second physical entity and the master node is connected to at least two subscriber nodes including a first subscriber node and a second subscriber node, wherein the CSN attached in the first commit redo record is used for indicating the sequence of the first write operation within the master node; and Pushing, by the master node, the first commit redo record attached with the CSN to a first subscriber node corresponding to the first physical entity based on mapping relationships between the physical entities and the subscriber nodes, wherein the first commit redo record is used for replicating data of the first write operation from the master node to the first subscriber node corresponding to the first physical entity, and then to the second subscriber node through pushing, by the first subscriber node, the received first commit redo record, to the second subscriber node; wherein, the physical entities are table space, device files, pages and/or partitions.
A method of controlling pressure in a patient interface of a CPAP apparatus having a flow generator, a patient interface, an air delivery conduit for delivering air from the flow generator to the patient interface, a pressure sensor for determining the pressure from the flow generator, a flow sensor for determining the flow from the flow generator, and a control mechanism that causes air to be delivered through the air delivery conduit at desired pressures at the patient interface, the method comprising the step of controlling the flow generator, wherein the pressure in the patient interface during an increase of flow is controlled to be greater than the pressure determined from the pressure sensor by an amount representative of the inertance of the air in the delivery conduit, wherein the amount representative of the inertance is ΔP = (ρl/A) dQ/dt, where ρ is the flow's density, l is the length of the air delivery conduit, A is the cross section area of the air delivery conduit, and dQ/dt is the rate of change of the flow. the method comprising the step of controlling the flow generator, wherein the pressure in the patient interface during an increase of flow is controlled to be greater than the pressure determined from the pressure sensor by an amount representative of the inertance of the air in the delivery conduit, wherein the amount representative of the inertance is ΔP = (ρl/A) dQ/dt, where ρ is the flow's density, l is the length of the air delivery conduit, A is the cross section area of the air delivery conduit, and dQ/dt is the rate of change of the flow.
A microelectromechanical systems, MEMS, device, comprising: at least one inner frame gyroscope configured to sense a first component of angular velocity associated with the MEMS device around a first axis; an outer frame gyroscope, comprising at least two proof masses, flexibly coupled to the at least one inner frame gyroscope and configured to sense a second component of angular velocity associated with the MEMS device around a second axis that is orthogonal to the first axis; at least two additional proof masses coupled to the at least one inner frame gyroscope, wherein the at least two additional proof masses are configured to sense a third component of angular velocity associated with the MEMS device around a third axis that is orthogonal to the first axis and the second axis; two outer frame lever arms associated with the outer frame gyroscope, coupled to the at least two proof masses of the outer frame gyroscope, and configured to force the outer frame gyroscope into anti-phase motion; and at least two drive shuttles flexibly coupled to the at least two proof masses of the outer frame gyroscope and to the at least one inner frame gyroscope, and configured to force the at least one inner frame gyroscope and the outer frame gyroscope into anti-phase motion. at least one inner frame gyroscope configured to sense a first component of angular velocity associated with the MEMS device around a first axis; an outer frame gyroscope, comprising at least two proof masses, flexibly coupled to the at least one inner frame gyroscope and configured to sense a second component of angular velocity associated with the MEMS device around a second axis that is orthogonal to the first axis; at least two additional proof masses coupled to the at least one inner frame gyroscope, wherein the at least two additional proof masses are configured to sense a third component of angular velocity associated with the MEMS device around a third axis that is orthogonal to the first axis and the second axis; two outer frame lever arms associated with the outer frame gyroscope, coupled to the at least two proof masses of the outer frame gyroscope, and configured to force the outer frame gyroscope into anti-phase motion; and at least two drive shuttles flexibly coupled to the at least two proof masses of the outer frame gyroscope and to the at least one inner frame gyroscope, and configured to force the at least one inner frame gyroscope and the outer frame gyroscope into anti-phase motion.
An optical scalpel with at least one light guide having a proximal end and a distal end opposite the proximal end, and whose proximal end can be connected to at least one processing light source, characterized in that the distal end of the light guide is configured as a scalpel end, wherein an end face oriented transversely to a longitudinal axis of the light guide is formed at the distal end of the light guide, and wherein the distal end has at least one lateral cutting edge (21, 26) emanating from the distal end of the light guide.