mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communication in a repeater device that extends a range of extremely high frequency, EHF, signals, the method comprising: detecting and/or tracking via reception of echo EHF signals, one or more non-RF-transmitting entities located among one or more of a plurality of repeater devices comprising said repeater device; and determining available routes for forwarding EHF communication via said repeater device and said one or more of said plurality of repeater devices based upon said detecting and/or tracking of said one or more non-RF-transmitting entities. detecting and/or tracking via reception of echo EHF signals, one or more non-RF-transmitting entities located among one or more of a plurality of repeater devices comprising said repeater device; and determining available routes for forwarding EHF communication via said repeater device and said one or more of said plurality of repeater devices based upon said detecting and/or tracking of said one or more non-RF-transmitting entities.
Motor vehicle having a plurality of battery modules for storing electrical energy in the region of an underbody of a passenger cell of the motor vehicle, wherein the underbody is delimited on both sides by a respective side sill, wherein, as viewed in the vehicle longitudinal direction (x), at least two battery modules are arranged next to one another between the side sills, wherein in each case a battery module adjoins the side sills and in each case at least one deformation element is arranged between the battery modules, characterized in that, as viewed in the vehicle longitudinal direction (x), multiple battery modules arranged next to one another are accommodated behind one another in the underbody and are separated from one another in each case by a single crossmember which extends in the vehicle transverse direction (y) between the side sills.
Dual-clutch transmission for shifting at least six transmission gears (V1a-V6a; V1c-V6c) that can be shifted sequentially, comprising a first input shaft (11a-11c), which is provided for connection to a first power shift clutch (K1a-K1c), comprising a second input shaft (12a-12c), which is provided for connection to a second power shift clutch (K2a-K2c), comprising a first layshaft (13a-13c), comprising a second layshaft (14a-14c), comprising a third layshaft (15a-15c), comprising at least six shifting units (S1a-S6a; S1b-S6b; S1c-S6c) and comprising at least one first, one second, one third and one fourth gearwheel plane (Z1a-Z4a; Z1b-Z4b; Z1c-Z4c), wherein the at least six shifting units (S1a-S6a; S1b-S6b; S1c-S6c) are arranged between exactly two immediately adjacent gearwheel planes (Z2a-Z2c, Z3a-Z3c) of the at least four gearwheel planes (Z1a-Z4a; Z1b-Z4b; Z1c-Z4c), wherein the at least six shifting units (Z1a-Z4a; Z1b-Z4b; Z1c-Z4c) are provided for connecting one loose wheel (Z13a-Z13c, Z22a-Z22c, Z23a-Z23c, Z24a-Z24c, Z32a-Z32c, Z33a-Z33c, Z34a-Z34c, Z43a-Z43c) to one of the layshafts (13a-13c, 14a-14c, 15a-15c) for conjoint rotation therewith in each case, wherein, out of the first, second, third and fourth gearwheel plane (Z1a-Z4a; Z1b-Z4b; Z1c-Z4c), the first gearwheel plane (Z1a-Z1c) is closest to the power shift clutches (K1a-K1c, K2a-K2c, K3b), the second gearwheel plane (Z2a-Z2c) is adjacent to the first gearwheel plane (Z1a-Z1c) and the third gearwheel plane (Z3a-Z3c) is adjacent to the second gearwheel plane (Z2a-Z2c), wherein the at least six shifting units (S1a-S6a; S1b-S6b; S1c-S6c) are arranged exclusively between the second and third gearwheel plane (Z2a-Z2c, Z3a-Z3c) so as to form the at least six transmission gears (V1a-V6a; V1c-V6c), wherein one (Z13a, Z13b, Z13c) of the loose wheels of the first gearwheel plane (Z1a, Z1b, Z1c) and one (Z23a, Z23b, Z23c) of the loose wheels of the second gearwheel plane (Z2a, Z3a, Z4a) are permanently interconnected for conjoint rotation with one another and therefore constitute a first loose wheel pair connected for conjoint rotation, wherein one (Z33a, Z33b, Z33c) of the loose wheels of the third gearwheel plane (Z3a, Z3b, Z3c) and one (Z43a, Z43b, Z43c) of the loose wheels of the fourth gearwheel plane (Z4a, Z4b, Z4c) are permanently interconnected for conjoint rotation with one another and therefore constitute a second loose wheel pair connected for conjoint rotation, wherein the first loose wheel pair connected for conjoint rotation and the second loose wheel pair connected for conjoint rotation are arranged on the second layshaft (14a, 14b, 14c), wherein the second gearwheel plane (Z2a-Z2c) comprises a fixed wheel (Z21a-Z21c) permanently connected to the second input shaft (12a-12c) for conjoint rotation therewith, characterised in that the third gearwheel plane (Z3a-Z3c) comprises a fixed wheel (Z31a-Z31c) permanently connected to the first input shaft (11a-11c) for conjoint rotation therewith.
An encapsulated particle comprising: A. a core particle comprising a fertilizer; and B. a polyurethane layer disposed about said core particle and comprising the reaction product of; (i) an isocyanate, and (ii) a polyol component comprising a first polyol having a nominal functionality of at least 2.5 and a hydroxyl number of from 20 to 300 mg KOH/g; in the presence of a silicone surfactant; wherein the polyurethane layer comprises the silicone surfactant. A. a core particle comprising a fertilizer; and B. a polyurethane layer disposed about said core particle and comprising the reaction product of; (i) an isocyanate, and (ii) a polyol component comprising a first polyol having a nominal functionality of at least 2.5 and a hydroxyl number of from 20 to 300 mg KOH/g; in the presence of a silicone surfactant; wherein the polyurethane layer comprises the silicone surfactant. (i) an isocyanate, and (ii) a polyol component comprising a first polyol having a nominal functionality of at least 2.5 and a hydroxyl number of from 20 to 300 mg KOH/g;
A resin composition comprising an alkoxysilyl group-containing hydrogenated block copolymer, and a hydrocarbon-based polymer having a number average molecular weight of 300 to 5000, the resin composition comprising the hydrocarbon-based polymer in an amount of 1 to 50 parts by weight based on 100 parts by weight of the alkoxysilyl group-containing hydrogenated block copolymer, the alkoxysilyl group-containing hydrogenated block copolymer being obtained by introducing an alkoxysilyl group into a hydrogenated block copolymer that is obtained by hydrogenating 90% or more of unsaturated bonds of a block copolymer that comprises at least two polymer blocks and at least one polymer block, the polymer block comprising a repeating unit derived from an aromatic vinyl compound as a main component, the polymer block comprising a repeating unit derived from a linear conjugated diene compound as a main component, and a ratio (wA:wB) of a weight fraction wA of the polymer block in the block copolymer to a weight fraction wB of the polymer block in the block copolymer being 30:70 to 65:35.
A deployment system for an endoluminal device comprising: an expandable endoluminal device mounted on a delivery catheter provided with an endo-prosthesis mounting member; a removable sheath adapted to cover the endoluminal device, the sheath comprising a fluoropolymer material adapted to surround at least a portion of the endoluminal device and constrain the device in an introductory profile; wherein the deployment system includes a deployment line integral with the sheath to effectuate device deployment; and wherein upon deployment, the sheath separates from the endoluminal device through actuation of the integral deployment line, the sheath functioning as an extension of the deployment line and becoming removed from the device along with the deployment line. an expandable endoluminal device mounted on a delivery catheter provided with an endo-prosthesis mounting member; a removable sheath adapted to cover the endoluminal device, the sheath comprising a fluoropolymer material adapted to surround at least a portion of the endoluminal device and constrain the device in an introductory profile; wherein the deployment system includes a deployment line integral with the sheath to effectuate device deployment; and wherein upon deployment, the sheath separates from the endoluminal device through actuation of the integral deployment line, the sheath functioning as an extension of the deployment line and becoming removed from the device along with the deployment line.
A communication method, comprising: generating, by a first terminal apparatus, a first demodulation reference sequence based on an aggregation level of a second control channel, wherein the first demodulation reference sequence is used to demodulate a first control channel, a first demodulation reference signal generated based on the first demodulation reference sequence is mapped to the first control channel, and first control information carried on the first control channel and second control information carried on the second control channel are used to demodulate a data channel; and sending, by the first terminal apparatus, the first control channel, the second control channel, and the data channel to a second terminal apparatus in a first slot, wherein the generating, by a first terminal apparatus, a first demodulation reference sequence based on an aggregation level of a second control channel comprises: determining, by the first terminal apparatus, an initial value of the first demodulation reference sequence based on the aggregation level of the second control channel; and generating, by the first terminal apparatus, the first demodulation reference sequence based on the initial value of the first demodulation reference sequence. generating, by a first terminal apparatus, a first demodulation reference sequence based on an aggregation level of a second control channel, wherein the first demodulation reference sequence is used to demodulate a first control channel, a first demodulation reference signal generated based on the first demodulation reference sequence is mapped to the first control channel, and first control information carried on the first control channel and second control information carried on the second control channel are used to demodulate a data channel; and sending, by the first terminal apparatus, the first control channel, the second control channel, and the data channel to a second terminal apparatus in a first slot, wherein the generating, by a first terminal apparatus, a first demodulation reference sequence based on an aggregation level of a second control channel comprises: determining, by the first terminal apparatus, an initial value of the first demodulation reference sequence based on the aggregation level of the second control channel; and generating, by the first terminal apparatus, the first demodulation reference sequence based on the initial value of the first demodulation reference sequence. determining, by the first terminal apparatus, an initial value of the first demodulation reference sequence based on the aggregation level of the second control channel; and generating, by the first terminal apparatus, the first demodulation reference sequence based on the initial value of the first demodulation reference sequence.
A spherical monodispersed polyester resin aqueous dispersion, comprising a polyester resin dispersed in water, wherein the polyester resin has a particle average particle diameter in the range of from 1 to 1,000 μm, a sphericity in the range of from 1.00 to 1.10 as an average value (aspect ratio) of the long diameter/short diameter of the particles, and a monodispersity as a coefficient of variation from the average particle diameter and a standard deviation of 8% or less, the dispersion contains, together with the polyester resin, an anionic polymer compound having an average molecular weight of 5,000,000 or more and 25,000,000 or less, and a polyvinyl alcohol, as dispersing agents, at a ratio in the range of from 1/10 to 1/99 by mass ratio (A/B), and the dispersion has a viscosity in the range of from 0.1 to 5 Pa·s. an anionic polymer compound having an average molecular weight of 5,000,000 or more and 25,000,000 or less, and a polyvinyl alcohol, as dispersing agents, at a ratio in the range of from 1/10 to 1/99 by mass ratio (A/B), and
A method of illustrating a derated takeoff on a flight display in a cockpit of an aircraft, the method comprising: displaying a runway representation on the flight display of a runway on which the aircraft is to takeoff; and displaying a takeoff indicia (42,44) referenced to the runway representation, with the takeoff indicia representing a location along the runway where the aircraft is airborne for a thrust setting (34,36), which is less than a full thrust setting. displaying a runway representation on the flight display of a runway on which the aircraft is to takeoff; and displaying a takeoff indicia (42,44) referenced to the runway representation, with the takeoff indicia representing a location along the runway where the aircraft is airborne for a thrust setting (34,36), which is less than a full thrust setting.
A method comprising setting a configuration of uplink control information for a macro cell located at a first site, and signaling, via the macro cell, the configuration of uplink control information for the macro cell and configuration information for a micro cell located at a second site to a terminal device for an inter-site carrier aggregation mode in which carriers from the macro cell and the micro cell are aggregated for uplink communication. setting a configuration of uplink control information for a macro cell located at a first site, and signaling, via the macro cell, the configuration of uplink control information for the macro cell and configuration information for a micro cell located at a second site to a terminal device for an inter-site carrier aggregation mode in which carriers from the macro cell and the micro cell are aggregated for uplink communication.
A system comprising: a gateway server (348, 410) configured to generate a plurality of partial queries from a database query for a database containing data stored in a distributed storage cluster (330, 440) that has a plurality of data nodes (312, 422), and to construct a query result based on a plurality of intermediate results; and a plurality of worker nodes (342, 412), wherein each worker node (342, 412) of the plurality of worker nodes (342, 412) is configured to process a respective partial query of the plurality of partial queries by scanning data related to the respective partial query and stored on at least one data node (312, 422) of the distributed storage cluster (330, 440), and wherein each worker node (342, 412) of the plurality of worker nodes (342, 412) is further configured to generate an intermediate result of the plurality of intermediate results that is stored in a memory of that worker node, characterized in that the gateway server (348, 419) is further configured to identify a straggling worker node, further divide a partial query that is assigned to the straggling worker node into a plurality of subordinate partial queries, and assign the plurality of subordinate partial queries to some of the plurality of worker nodes (342, 412), wherein the straggling worker node is a worker node that either fails to report a rate of progress to the gateway server (348, 410) or reports the rate of progress below a predetermined value after a predetermined time period to the gateway server (348, 410). a gateway server (348, 410) configured to generate a plurality of partial queries from a database query for a database containing data stored in a distributed storage cluster (330, 440) that has a plurality of data nodes (312, 422), and to construct a query result based on a plurality of intermediate results; and a plurality of worker nodes (342, 412), wherein each worker node (342, 412) of the plurality of worker nodes (342, 412) is configured to process a respective partial query of the plurality of partial queries by scanning data related to the respective partial query and stored on at least one data node (312, 422) of the distributed storage cluster (330, 440), and wherein each worker node (342, 412) of the plurality of worker nodes (342, 412) is further configured to generate an intermediate result of the plurality of intermediate results that is stored in a memory of that worker node, characterized in that the gateway server (348, 419) is further configured to identify a straggling worker node, further divide a partial query that is assigned to the straggling worker node into a plurality of subordinate partial queries, and assign the plurality of subordinate partial queries to some of the plurality of worker nodes (342, 412), wherein the straggling worker node is a worker node that either fails to report a rate of progress to the gateway server (348, 410) or reports the rate of progress below a predetermined value after a predetermined time period to the gateway server (348, 410).
Method for operating a system for a thermodynamic cycle process having a multi-channel evaporator which has at least two evaporator channels (19.1, 19.2, 19.3, 19.4), wherein the evaporator channels (19.1, 19.2, 19.3, 19.4) are assimilated with one another with regard to at least one operating parameter of the individual evaporator channels (19.1, 19.2, 19.3, 19.4), and/or wherein a pressure drop across the evaporator is regulated, wherein the evaporator channels (19.1, 19.2, 19.3, 19.4) are assimilated with one another through variation of control variables for setting elements (33.1, 33.2, 33.3, 33.4) which limit a throughflow through the evaporator channels (19.1, 19.2, 19.3, 19.4) and which are assigned to the individual evaporator channels (19.1, 19.2, 19.3, 19.4), characterized in that the control variables are renormalized such that a setting element (33.1, 33.2, 33.3, 33.4) actuated with the greatest value of the control variables is opened to a maximum extent.
Modular mobile mixing and packaging plant for powdery or granular products comprising a carrying structure having dimensions suitable for being introduced in a standard shipping container and internally housing a receiving and manual weighing module, a material loading module, a mixing module, and a packaging module, wherein the mixing module comprises a mixing tank and means for cooling and/or drying the mixture contained in the mixing tank of said mixing module; the plant being characterized in that the means for cooling and/or drying the mixture are arranged to incorporate an air flow inside the mixing tank by using the movements of the mixing tank to obtain air recirculation in the involute of the lower part of the mixing tank.
Aerosol-generating device comprising: A heating arrangement, the heating arrangement comprising an induction coil, a first contact, a second contact and a third contact; and a controller, wherein the first contact is arranged contacting a proximal end of the induction coil, wherein the second contact is arranged contacting a distal end of the induction coil, wherein the third contact is arranged contacting the induction coil between the first contact and the second contact, wherein the first, second and third contacts are electrically connected to the controller, wherein the controller is configured to control supply of an alternating electrical current between only a pair of the first, second and third contacts, and wherein the first contact and the second contact are fixed contacts and the third contact is configured as a movable contact. A heating arrangement, the heating arrangement comprising an induction coil, a first contact, a second contact and a third contact; and a controller, wherein the first contact is arranged contacting a proximal end of the induction coil, wherein the second contact is arranged contacting a distal end of the induction coil, wherein the third contact is arranged contacting the induction coil between the first contact and the second contact, wherein the first, second and third contacts are electrically connected to the controller, wherein the controller is configured to control supply of an alternating electrical current between only a pair of the first, second and third contacts, and wherein the first contact and the second contact are fixed contacts and the third contact is configured as a movable contact.
High-voltage transformer comprising a transformer core having at least two core limbs (12, 14, 16) which are axially parallel and on which in each case a hollow-cylindrical coil (18, 20, 22, 52, 72) having in each case at least one electrical winding is arranged, wherein, at least in partial regions of mutually facing surfaces (36, 38) of adjacently arranged coils (18, 20, 22, 52, 72), the respective surface regions of the coils have a respective electrically isolating barrier structure (54, 74) which is integrated radially on the outside and wherein the barrier structure (54, 74) of at least one coil (18, 20, 22, 52, 72) is not formed over the entire circumference thereof, characterized in that the barrier structures (54, 74) comprise slats (26, 30, 34) which run axially and which support a barrier wall (24, 28, 32, 56, 58) which is arranged radially opposite, wherein, at least in regions, a plurality of radially adjacent layers of slats (26, 30, 34) and barrier walls (24, 28, 32, 56, 58) are provided and wherein the cross section of the barrier structure (54, 74) at the two outer ends thereof transitions in a flat manner into the surface of the coil (18, 20, 22, 52, 72) or is marked in a step-like manner at the two outer ends thereof, wherein the two outer steps are formed by a respective side wall of the respectively outer slats.
An amplifier for providing amplified signals to a speaker through an AC coupling capacitor, comprising: a first amplifying stage; a second amplifying stage; power control circuitry for selectively applying and removing power to the amplifier; and circuitry for charging the AC coupling capacitor with the first amplifying stage when power is applied, and enabling the second amplifying stage after the AC coupling capacitor is charged to a desired state; characterised in that the first amplifying stage has a low gain and the gain of the second amplifying stage is higher than that first amplifying stage, wherein the first amplifying stage comprises a p-channel transistor (PMOS1) and an n-channel transistor (NMOS1), a source of the p-channel transistor (PMOS1) coupled to a supply voltage and a drain of the p-channel transistor (PMOS1) coupled to a drain of the n-channel transistor (NMOS1) at a node, the source of the n-channel transistor (NMOS1) coupled to ground, the first amplifying stage further comprising a feedback circuit coupled between the AC coupling capacitor and a gate of the p-channel transistor (PMOS1) of the first amplifying stage via the node for reducing the gain of first amplifying stage, wherein the feedback circuit comprises a resistor coupled between a switch (S/P) and a capacitor. a first amplifying stage; a second amplifying stage; power control circuitry for selectively applying and removing power to the amplifier; and circuitry for charging the AC coupling capacitor with the first amplifying stage when power is applied, and enabling the second amplifying stage after the AC coupling capacitor is charged to a desired state; characterised in that