mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for a vehicle communicating in multiple mobile communication systems, the apparatus comprising: one or more interfaces configured to communicate in the mobile communication systems using an adaptive antenna; and a control module configured to control the one or more interfaces, wherein the control module comprises at least two signal processing paths according to two different radio access technologies and wherein the control module is further configured to: determine a setting for the adaptive antenna to obtain spatially separated signals using the same time and frequency resources; detect different messages from the spatially separated signals, wherein the spatially separated signals are based on at least two different radio access technologies; spatially de-multiplex and assign signals to the at least two signal processing paths according to the two different radio access technologies; and estimate an angular direction of a signal using predefined pilot or synchronization signal settings of a radio access technology. one or more interfaces configured to communicate in the mobile communication systems using an adaptive antenna; and a control module configured to control the one or more interfaces, wherein the control module comprises at least two signal processing paths according to two different radio access technologies and wherein the control module is further configured to: determine a setting for the adaptive antenna to obtain spatially separated signals using the same time and frequency resources; detect different messages from the spatially separated signals, wherein the spatially separated signals are based on at least two different radio access technologies; spatially de-multiplex and assign signals to the at least two signal processing paths according to the two different radio access technologies; and estimate an angular direction of a signal using predefined pilot or synchronization signal settings of a radio access technology. determine a setting for the adaptive antenna to obtain spatially separated signals using the same time and frequency resources; detect different messages from the spatially separated signals, wherein the spatially separated signals are based on at least two different radio access technologies; spatially de-multiplex and assign signals to the at least two signal processing paths according to the two different radio access technologies; and estimate an angular direction of a signal using predefined pilot or synchronization signal settings of a radio access technology.
Horological regulator mechanism, comprising, arranged on a plate, a resonator mechanism with a quality factor Q, and an escapement mechanism which is subject to a torque of a driving means comprised by a movement, said resonator mechanism comprising an inertial element arranged to oscillate with respect to said plate, said inertial element being subject to the action of resilient return means directly or indirectly attached to said plate, and said inertial element being arranged to cooperate indirectly with an escapement wheel comprised by said escapement mechanism, wherein said resonator mechanism is a rotary resonator with virtual pivot, about a main axis, with flexible guide comprising at least two flexible blades, and comprising an impulse pin integral with said inertial element, wherein said escapement mechanism comprises a pallet pivoting about a secondary axis and comprising a pallet fork arranged to cooperate with said impulse pin, characterised in that said escapement mechanism is a free escapement mechanism in the operating cycle of which said resonator mechanism has at least one phase of freedom where said impulse pin is at a distance from said pallet fork, and in that the overall resonator lift angle (β), during which said impulse pin is in contact with said pallet fork, is less than 10°, and where the inertia I B of said inertial element with respect to said main axis on the one hand, and the inertia I A of said pallet with respect to said secondary axis on the other hand, are such that the ratio I B /I A is greater than 2Q · α 2 /(π · β 2 /10), where α is the overall lift angle of the pallet which corresponds to the maximum angular travel of said pallet fork.
Trailing module for a switch machine of a railway switch having two blades connected to a driving bar, the switch machine comprising a linear actuator adapted to linearly move between a first position and the second position, the trailing module comprising: a first member (19, 21), and a second member (19, 21), wherein the first member (19, 21) being movably connected to the second member (19, 21) via at least one trailing mechanism (30a, 30b), each trailing mechanism comprising at least one linear sliding area (34a, 34b) at the first member, a biasing device (40a, 40b) arranged between the second member (19, 21) and an intermediate member (42a, 42b) adapted to push the intermediate member (42a, 42b) away from the second member in a trailing direction (32a, 32b) in parallel to the movement direction of the linear actuator, wherein the intermediate member comprises at least one slider (46a, 46b) adapted to slide on the sliding area and which is biased against the sliding area (34a, 34b), wherein the sliding area has a first portion (36a, 36b) with a first distance and a second portion (38a, 38b) with a second distance with respect to the second member (19, 21), wherein the second distance is closer to the second member than the first distance, wherein the trailing mechanism (30a, 30b) has as first operation mode and a second operation mode, wherein in the first operation mode, the slider (46a, 46b) is engaged in the first portion of the sliding area, and in the second operation mode, when the second member (19, 21) is moved with respect to the first member in the trailing direction (32a, 32b) a predetermined distance, the slider is disengaged from the first portion of the sliding area and slides on the second portion (38a, 38b) of the sliding area, wherein a first one of the first member and the second member being adapted to be rigidly connected to the linear actuator, and a second one of the first member and the second member being adapted to be connected to the driving bar. a first member (19, 21), and a second member (19, 21), wherein
An austenitic stainless steel welded joint, whose base metal and weld metal each consists of, by mass percent, C: 0.05 to 0.3%, Si: not more than 2%, Mn: 0.01 to 3.0%, P: more than 0.04% to not more than 0.3%, S: not more than 0.03%, Cr: 12 to 30%, Ni: 6 to 55% and N: not more than 0.3%, with the balance being Fe and impurities, and the following formula is satisfied: Cr + 1.5 × Si + 2 × P / Ni + 0.31 × Mn + 22 × C + 14.2 × N + 5 × P < 1.388 wherein each element symbol in the formula represents the content by mass percent of the element concerned, and characterized in that the austenitic stainless steel welded joint comprises, by mass percent, rare earth metal(s): more than 0.3% to not more than 0.6% and sol. Al: 0.001 to 3%, and which further optionally contains, by mass percent, one element or two or more elements selected from the first group and/or the second group given below in lieu of a part of Fe and, further, when one or two or more elements selected from the first group and/or second group given below are contained in lieu of a part of Fe, the following formula is satisfied: Cr + 1.5 × Si + 2 × Nb + Ti + 2 × P / Ni + 0.31 × Mn + 22 × C + 14.2 × N + Cu + 5 × P < 1.388 wherein each element symbol in the formula represents the content by mass percent of the element concerned: first group: one or two or more of Mo: not more than 5%, W: not more than 10%, provided that Mo + (W / 2): not more than 5%, Ti: not more than 3%, Nb: not more than 1.5%, Ta: not more than 8%, V: not more than 1.5%, Zr: not more than 1%, Hf: not more than 1%, B: not more than 0.03%, Cu: not more than 3% and Co: not more than 5%; and second group: one or both of Ca: not more than 0.05% and Mg: not more than 0.05%. wherein each element symbol in the formula represents the content by mass percent of the element concerned, and characterized in that the austenitic stainless steel welded joint comprises, by mass percent, rare earth metal(s): more than 0.3% to not more than 0.6% and sol. Al: 0.001 to 3%, and which further optionally contains, by mass percent, one element or two or more elements selected from the first group and/or the second group given below in lieu of a part of Fe and, further, when one or two or more elements selected from the first group and/or second group given below are contained in lieu of a part of Fe, the following formula is satisfied: Cr + 1.5 × Si + 2 × Nb + Ti + 2 × P / Ni + 0.31 × Mn + 22 × C + 14.2 × N + Cu + 5 × P < 1.388 wherein each element symbol in the formula represents the content by mass percent of the element concerned: first group: one or two or more of Mo: not more than 5%, W: not more than 10%, provided that Mo + (W / 2): not more than 5%, Ti: not more than 3%, Nb: not more than 1.5%, Ta: not more than 8%, V: not more than 1.5%, Zr: not more than 1%, Hf: not more than 1%, B: not more than 0.03%, Cu: not more than 3% and Co: not more than 5%; and second group: one or both of Ca: not more than 0.05% and Mg: not more than 0.05%.
Predominantly open-cell, cold-formable, rigid polyurethane foams with > 50 vol% open-cell content to DIN ISO 4590-86 and with uniform cell structure, obtainable by reacting a technical polyisocyanate component A) comprising A1) 0 to 10 wt%, based on the organic polyisocyanate component A), of 2,2'-diphenylmethane diisocyanate, A2) 0 to 30 wt%, based on the organic polyisocyanate component A), of 2,4'-diphenylmethane diisocyanate and A3) 25 to 75 wt%, based on the organic polyisocyanate component A), of 4,4'-diphenylmethane diisocyanate, with a component B consisting of B1) 20 to 70 wt%, based on component B, of polyoxyalkylene polyols having a hydroxyl number of 25 5 to 60 mg KOH/g and a number-average functionality of 2 to 4, B2) 20 to 50 wt%, based on component B, of polyoxypropylene polyols having a hydroxyl number of 300 to 900 mg KOH/g and a number-average functionality of 2.5 to 4, B3) 0 to 25 wt%, based on component B, of polyoxyalkylene polyols having a hydroxyl number of 150 to 550 mg KOH/g and a functionality of 2, B4) 0 to 20 wt%, based on component B, of polyols containing ester groups and having a hydroxyl number of 200 to 500 mg KOH/g and a number-average functionality of 2 to 5, B5) 0.1 to 15 wt%, based on component B, of propylene oxide-ethylene oxide copolymers having a hydroxyl number of 25 to 200 mg KOH/g and a functionality of 5 to 8, B6) 0 to 3 wt%, based on component B, of glycerol, B7) 1 to 7 wt%, based on component B, of water, B8) 0.5 to 4 wt%, based on component B, of catalysts B9) optionally auxiliaries and/or adjuvants, the NCO index being 85 to 125, preferably 100 to 120, and the sum of components B1) to B9) being 100 wt%. A1) 0 to 10 wt%, based on the organic polyisocyanate component A), of 2,2'-diphenylmethane diisocyanate, A2) 0 to 30 wt%, based on the organic polyisocyanate component A), of 2,4'-diphenylmethane diisocyanate and A3) 25 to 75 wt%, based on the organic polyisocyanate component A), of 4,4'-diphenylmethane diisocyanate, with a component B consisting of B1) 20 to 70 wt%, based on component B, of polyoxyalkylene polyols having a hydroxyl number of 25 5 to 60 mg KOH/g and a number-average functionality of 2 to 4, B2) 20 to 50 wt%, based on component B, of polyoxypropylene polyols having a hydroxyl number of 300 to 900 mg KOH/g and a number-average functionality of 2.5 to 4, B3) 0 to 25 wt%, based on component B, of polyoxyalkylene polyols having a hydroxyl number of 150 to 550 mg KOH/g and a functionality of 2, B4) 0 to 20 wt%, based on component B, of polyols containing ester groups and having a hydroxyl number of 200 to 500 mg KOH/g and a number-average functionality of 2 to 5, B5) 0.1 to 15 wt%, based on component B, of propylene oxide-ethylene oxide copolymers having a hydroxyl number of 25 to 200 mg KOH/g and a functionality of 5 to 8, B6) 0 to 3 wt%, based on component B, of glycerol, B7) 1 to 7 wt%, based on component B, of water, B8) 0.5 to 4 wt%, based on component B, of catalysts B9) optionally auxiliaries and/or adjuvants, the NCO index being 85 to 125, preferably 100 to 120, and the sum of components B1) to B9) being 100 wt%.
A DC/DC power converting apparatus, wherein a plurality of circuits (A1-A4) are connected in series, each of said circuits (A1-A4) including a high-voltage side device (Mos1H-Mos4H) and a low-voltage side device (Mos1L-Mos4L) made of semiconductor switching devices connected in series as well as a smoothing capacitor (Cs1-Cs4) having positive and negative terminals between which said semiconductor switching devices are connected, capacitors (Cr12, Cr13, Cr14) for energy transfer are connected individually between one specific circuit and the others of said plurality of circuits, and inductors (Lr12, Lr13, Lr14) are disposed in charging and discharging paths of said capacitors (Cr12, Cr13, Cr14), wherein, among said plurality of circuits (A1-A4), at least a specific circuit is used as a driving inverter circuit and any other circuit is used as a rectifier circuit, and said DC/DC power converting apparatus performs DC/DC conversion through charging and discharging operation of said capacitors (Cr12, Cr13, Cr14).
A robotic system, comprising: an inner elongate cannula (9310, 2310); an outer elongate cannula (9300, 2300) concentric with the inner elongate cannula; a cassette at a proximal end of the inner elongate cannula (9310, 2310) and the outer elongate cannula (9300, 2300), wherein the inner elongate cannula (9310, 2310) is configured to rigidize with the application of vacuum or pressure to the inner elongate cannula (9310, 2310), and the outer elongate cannula (9300, 2300) is configured to rigidize. an inner elongate cannula (9310, 2310); an outer elongate cannula (9300, 2300) concentric with the inner elongate cannula; a cassette at a proximal end of the inner elongate cannula (9310, 2310) and the outer elongate cannula (9300, 2300), wherein the inner elongate cannula (9310, 2310) is configured to rigidize with the application of vacuum or pressure to the inner elongate cannula (9310, 2310), and the outer elongate cannula (9300, 2300) is configured to rigidize.
A method of searching for data in a distributed file system, the method comprising: Receiving (Step 405) a data request at a name node of the distributed file system, the distributed file system comprising a plurality of data nodes (110, 115, 120) with a storage disk each having a plurality of data blocks, each data node storing statistical data of records stored in the respective plurality of data blocks, the statistical data stored in a statistical data block in a memory of the data node, wherein the statistical data block of the data node comprises statistical data of the data node and, for each of the data blocks comprised by the data node, statistical data of the respective data block; determining (Step 420) qualified data nodes based on the statistical data of each data node and, afterwards, determining (Step 435) qualified data blocks of the plurality of data blocks comprised by the determined qualified data nodes, wherein the qualified data blocks satisfy the request, based on comparing the statistical data of records with a criteria of the data request; and determining qualified records of the qualified data blocks, based on the data request; wherein qualified data nodes are determined based, at least in part of results of online analytical processing which are pre-calculated for each data block. Receiving (Step 405) a data request at a name node of the distributed file system, the distributed file system comprising a plurality of data nodes (110, 115, 120) with a storage disk each having a plurality of data blocks, each data node storing statistical data of records stored in the respective plurality of data blocks, the statistical data stored in a statistical data block in a memory of the data node, wherein the statistical data block of the data node comprises statistical data of the data node and, for each of the data blocks comprised by the data node, statistical data of the respective data block; determining (Step 420) qualified data nodes based on the statistical data of each data node and, afterwards, determining (Step 435) qualified data blocks of the plurality of data blocks comprised by the determined qualified data nodes, wherein the qualified data blocks satisfy the request, based on comparing the statistical data of records with a criteria of the data request; and determining qualified records of the qualified data blocks, based on the data request; wherein qualified data nodes are determined based, at least in part of results of online analytical processing which are pre-calculated for each data block.
A control device for a high voltage direct current (HVDC) system, the control device comprising: a communication unit configured to perform communication with a component in the HVDC system; and a control unit configured to control the communication unit to receive, from the component, data on an available state of the component, and configured to calculate an availability of the HVDC system defined as a ratio of an actual operation time of the HVDC system to an operable time of the HVDC system based on data on the available state of the component, characterized in that the actual operation time of the HVDC system is defined as a time excluding an inoperable time of the HVDC system from the operable time of the HVDC system, wherein the inoperable time of the HVDC system is defined as a time for which the HVDC system does not normally operate for inoperable reasons though the HVDC system is in an operable state, and wherein a planned stop time is not included in the inoperable time of the HVDC system, wherein the planned stop time is a time that has been scheduled to stop for system maintenance and a component check upon the construction of the HVDC system, wherein if the HVDC system transmits power as a bipolar transmission signal and the availability of the HVDC system is lower than a desired value, the control unit is further configured to check a component connected to one side of the bipolar transmission signal at a time when the power moves to another side of the bipolar transmission signal. a communication unit configured to perform communication with a component in the HVDC system; and a control unit configured to control the communication unit to receive, from the component, data on an available state of the component, and configured to calculate an availability of the HVDC system defined as a ratio of an actual operation time of the HVDC system to an operable time of the HVDC system based on data on the available state of the component, characterized in that the actual operation time of the HVDC system is defined as a time excluding an inoperable time of the HVDC system from the operable time of the HVDC system, wherein the inoperable time of the HVDC system is defined as a time for which the HVDC system does not normally operate for inoperable reasons though the HVDC system is in an operable state, and wherein a planned stop time is not included in the inoperable time of the HVDC system, wherein the planned stop time is a time that has been scheduled to stop for system maintenance and a component check upon the construction of the HVDC system, wherein if the HVDC system transmits power as a bipolar transmission signal and the availability of the HVDC system is lower than a desired value, the control unit is further configured to check a component connected to one side of the bipolar transmission signal at a time when the power moves to another side of the bipolar transmission signal.
A recombinant progenitor cell which is a stem cell transduced with a vector containing a nucleic acid molecule which encodes a truncated chimeric antigen receptor specific for a virus or an epitope thereof, wherein the recombinant progenitor cell is capable of differentiating into a functional effector cell, wherein the truncated CAR comprises a truncated CD4 fused to the signaling domain of the CD3 complex ζ-chain, wherein the truncated CD4 lacks D2+D3+D4, D3+D4, or D4 of CD4.
A protection method for protecting an FPGA against natural radiation, the FPGA presenting a surface subdivided into a plurality of zones, and the protection method comprising the steps of: • defining at least one category of constraining signals (H, Rst), the category of constraining signals being defined so that a predetermined placement and routing tool cannot route more than a determined maximum number of different constraining signals (H1, H2, H3, Rst1, Rst2, Rst3) to any one zone of the surface of the FPGA; • replicating an initial logic module in order to obtain a plurality of replicated logic modules (20, 30a, 30b, 30c,..., 35a, 35b, 35c) forming a replicated logic cell (21, 30,..., 35); and • associating constraining signals with the replicated logic modules in such a manner that the number of constraining signals associated with the replicated logic cell is greater than the determined maximum number in order to force the placement and routing tool to place the replicated logic modules of the replicated logic cell in distinct zones of the surface of the FPGA. • defining at least one category of constraining signals (H, Rst), the category of constraining signals being defined so that a predetermined placement and routing tool cannot route more than a determined maximum number of different constraining signals (H1, H2, H3, Rst1, Rst2, Rst3) to any one zone of the surface of the FPGA; • replicating an initial logic module in order to obtain a plurality of replicated logic modules (20, 30a, 30b, 30c,..., 35a, 35b, 35c) forming a replicated logic cell (21, 30,..., 35); and • associating constraining signals with the replicated logic modules in such a manner that the number of constraining signals associated with the replicated logic cell is greater than the determined maximum number in order to force the placement and routing tool to place the replicated logic modules of the replicated logic cell in distinct zones of the surface of the FPGA.
A component of a liquid supply and/or distribution system of a wiping installation for a motor vehicle, comprising a space (44, 46, 53, 54, 59, 63) delimited by a wall (43, 45, 52, 58, 60 to 62) in which the liquid can spread, characterized in that the wall (43, 45, 52, 58, 60 to 62) is made of a heat-conducting plastic material exhibiting a thermal diffusivity greater than or equal to 0.00019 m 2 /s.