mhurhangee/ep-ind-claims huggingface dataset:
A terminal apparatus comprising: a receiver that receives a downlink control information with a Hybrid Automatic Repeat Request, HARQ, process number through a physical downlink control channel for a serving cell, wherein for a serving cell using Frequency Division Duplexing, FDD, with a primary cell using FDD, a field of the HARQ process number is 3 bits and a maximum number of the HARQ processes is 8, and for a serving cell using FDD with a primary cell using Time Division Duplexing, TDD, a field of the HARQ process number is 4 bits and the maximum number of the HARQ processes is determined by an uplink/downlink configuration for the serving cell. a receiver that receives a downlink control information with a Hybrid Automatic Repeat Request, HARQ, process number through a physical downlink control channel for a serving cell, wherein for a serving cell using Frequency Division Duplexing, FDD, with a primary cell using FDD, a field of the HARQ process number is 3 bits and a maximum number of the HARQ processes is 8, and for a serving cell using FDD with a primary cell using Time Division Duplexing, TDD, a field of the HARQ process number is 4 bits and the maximum number of the HARQ processes is determined by an uplink/downlink configuration for the serving cell.
Scaffolding element having a scaffolding pole (12a - 12i) and a longitudinally extending fastening element for attaching a railing (20a, 20b) to the scaffolding pole (12a - 12i), wherein the fastening element (26a - 26c) is rigidly connected to the scaffolding pole (12a - 12i) and the fastening element (26a - 26c) has a fastening element body, wherein the longitudinal axis of the free end of the fastening element body runs parallel 25° to the longitudinal axis of the scaffolding pole (12a - 12i), and the fastening element (26a - 26c) has a projection formed by a bead on the fastening element body projecting toward the scaffolding pole (12a - 12i), wherein the bead extends at least partially radially around the fastening element body, characterized in that the fastening element body is L-shaped.
A mobile storage unit comprising: a) a rigid exo-skeletal frame configured to form an open storage region; b) a flexible storage bag with a main storage compartment, coupled to the rigid exo-skeletal frame within the open storage region; c) a first pair of wheels (209, 209') coupled at or near a base portion of the rigid frame structure for rolling the mobile storage unit while the mobile storage unit is in a tilted position; d) an extendable handle for rolling the mobile storage unit while the mobile storage unit is in a tilted position; e) a top seat portion configured to be sat on while the mobile storage unit is in an upright position; characterized in that f) one or more retractable support structures (211, 211') are provided to support the mobile storage unit with the mobile storage unit in the upright position, wherein the one or more retractable support structures (211, 211') extend and retract from wheel wells positioned over the first pair of wheels (209, 209'). a) a rigid exo-skeletal frame configured to form an open storage region; b) a flexible storage bag with a main storage compartment, coupled to the rigid exo-skeletal frame within the open storage region; c) a first pair of wheels (209, 209') coupled at or near a base portion of the rigid frame structure for rolling the mobile storage unit while the mobile storage unit is in a tilted position; d) an extendable handle for rolling the mobile storage unit while the mobile storage unit is in a tilted position; e) a top seat portion configured to be sat on while the mobile storage unit is in an upright position; characterized in that f) one or more retractable support structures (211, 211') are provided to support the mobile storage unit with the mobile storage unit in the upright position, wherein the one or more retractable support structures (211, 211') extend and retract from wheel wells positioned over the first pair of wheels (209, 209').
A battery energy storage system comprising: a battery mounting area; a venting area fluidly isolated from the battery mounting area; and a battery cell (20; 52) arranged at least partially within the battery mounting area, the battery cell (20; 52) including at least one safety vent (42; 58), the at least one safety vent (42; 58) being fluidly coupled to the venting area; characterized in that the at least one safety vent (42; 58) is directly coupled to the venting area and a portion of the battery cell (20; 52) including the at least one safety vent (42; 58) is arranged within the venting area. a battery mounting area; a venting area fluidly isolated from the battery mounting area; and a battery cell (20; 52) arranged at least partially within the battery mounting area, the battery cell (20; 52) including at least one safety vent (42; 58), the at least one safety vent (42; 58) being fluidly coupled to the venting area; characterized in that the at least one safety vent (42; 58) is directly coupled to the venting area and a portion of the battery cell (20; 52) including the at least one safety vent (42; 58) is arranged within the venting area.
A vacuum insulating panel comprising: a first substrate; a second substrate; a plurality of spacers provided in a gap between at least the first and second substrates, wherein the gap is at pressure less than atmospheric pressure; a seal at least partially located between at least the first and second substrates; and a getter comprising getter material, characterized in that the getter material comprises a Ti-Al-V crystalline phase of approximately Al 3 V 0.333 Ti 0.666. a first substrate; a second substrate; a plurality of spacers provided in a gap between at least the first and second substrates, wherein the gap is at pressure less than atmospheric pressure; a seal at least partially located between at least the first and second substrates; and a getter comprising getter material, characterized in that the getter material comprises a Ti-Al-V crystalline phase of approximately Al 3 V 0.333 Ti 0.666.
A laminate for a pneumatic tire, comprising a film of a thermoplastic resin or thermoplastic elastomer composition and a layer of a rubber composition, wherein the rubber composition comprises a rubber component, a condensate of a compound represented by formula: wherein R 1, R 2, R 3, R 4, and R 5 are each independently hydrogen, a hydroxyl group, an alkyl group having 1 to 8 carbon atoms, or an alkoxy group having 1 to 8 carbon atoms, and formaldehyde, a methylene donor, and a vulcanizing agent, wherein the rubber composition comprises from 0.5 to 20 parts by weight of the condensate and from 0.25 to 200 parts by weight of the methylene donor based on 100 parts by weight of the rubber component, characterized in that the rubber component comprises a styrene butadiene rubber, a natural rubber, and a butyl rubber or halogenated butyl rubber; and the content of the butyl rubber or halogenated butyl rubber is from 2.5 to 40% by weight based on the rubber component.
An inner rotor for an internal gear pump comprising said inner rotor and an outer rotor having one more tooth than said inner rotor, said inner rotor including a plurality of teeth each comprising a tooth bottom defined by hypocycloidal curves, and a tooth top defined by a predetermined curve; characterized in that each of said teeth of said inner rotor includes an engaging portion configured to engage an outer rotor and defined by involute curves, wherein a base circle of said hypocycloidal curves has a diameter greater than a base circle of said involute curves, each of said hypocycloidal curves of said tooth bottom connecting with one of said involute curves of said engaging portion at a point inside of the base circle of said hypocycloidal curves, and wherein a tangent, at said point, to a circle having a center at the center of the inner rotor and passing said point forms an angle (α) smaller than 85 degrees with respect to a tangent to the involute curve at said point.
Use of an austenitic material as a welding material, the austenitic material containing C: 0.01 wt% or less, Si: 0.5 wt% or less, Mn: 0.5 wt% or less, P: 0.005 wt% or less, S: 0.005 wt% or less, Ni: 15 to 40 wt%, Cr: 20 to 30 wt%, N: 0.01 wt% or less, O: 0.01 wt% or less, optionally containing Ti, and the balance of Fe and inevitable impurities, wherein the content of B contained as one of the inevitable impurities in the austenitic material is 3 wt ppm or less, and the total content of C, P, S, N and O in the austenitic material is 0.02 wt% or less, wherein, in case the austenitic material contains Ti, the Ti, C, P, S, N and O contents in the austenitic material satisfy the following formula: Ti ≥ 48 / 12 × C + 48 / 31 × P + 48 / 32 × S + 48 / 14 × N + 48 / 16 × 1 / 2 × O where [Ti],,,, and represent respective contents of Ti, C, P, S, N and O, in wt%.
A method for producing structures or contours in a workpiece made from wood, plastic and the like, in which the contour (43, 44) is produced on the workpiece in a moulder by workpiece cutting using at least one rotatably driven tool (10, 11), the tool positions along the workpiece for producing the contour (43, 44) being determined as a function of the data of the workpiece and the tool (10, 11) and the data being transmitted to a machine control, which executes the CNC program based on the data during the passage of the workpiece through the moulder and adjusts the tool (10, 11) into the required positions by means of CNC drives as a function of the workpiece position, the workpiece position being detected during the passage of the workpiece through the moulder in that at least one measuring element is used for detecting the position of the workpiece in the moulder (10, 11), which measuring element is connected to the machine control and delivers signals describing the feed path of the workpiece to the machine control, characterized in that the beginning of the workpiece is detected by at least one sensor, which, upon detection of the workpiece beginning, delivers a signal to the machine control, which is used as a starting point of the position measurement by means of the measuring element.
A vehicle steering wheel structure comprising: a damper module disposed in an inner region of a rim portion of a steering wheel, with a plurality of damper masses arranged so as to be distributed in the inner region of the rim portion of the steering wheel; characterized in that a connection member is provided that connects these damper masses to transfer vibration that the individual damper masses bear to the other damper masses. a damper module disposed in an inner region of a rim portion of a steering wheel, with a plurality of damper masses arranged so as to be distributed in the inner region of the rim portion of the steering wheel; a connection member is provided that connects these damper masses to transfer vibration that the individual damper masses bear to the other damper masses.
An anticorrosive coating composition comprising: a binding polymer; and a corrosion inhibiting pigment comprising amorphous aluminum phosphate particles dispersed within the binding polymer; and wherein the coating composition provides a controlled release of phosphate anion of about 100 to 1,500 ppm preferably less than about 500 ppm, preferably less than about 200 ppm, when applied to a metallic substrate and when contacted with water. a binding polymer; and a corrosion inhibiting pigment comprising amorphous aluminum phosphate particles dispersed within the binding polymer; and wherein the coating composition provides a controlled release of phosphate anion of about 100 to 1,500 ppm preferably less than about 500 ppm, preferably less than about 200 ppm, when applied to a metallic substrate and when contacted with water.
A method of communicating vehicle positioning information, wherein signals are transmitted from at least one vehicle mounted antenna for indicating a position of the vehicle to another entity, the signals including information concerning at least one of an identity of the at least one antenna and information providing a displacement between the at least one antenna and a boundary of the vehicle.
A lipolytic enzyme variant or an active fragment thereof, wherein the variant or active fragment has lipolytic activity and comprises two, three, four, five, six, seven, eight, nine or ten or more amino acid modifications to a parent lipolytic enzyme having SEQ ID NO: 1, wherein a first amino acid modification of the lipolytic enzyme variant or active fragment thereof is V187T, V187N, V187Q or V187H, wherein the lipolytic enzyme variant or active fragment thereof has at least 90% sequence identity to SEQ ID NO: 1, and wherein the amino acid position of the variant is numbered by correspondence with the amino acid sequence of Thermomyces lanuginosa lipase set forth in SEQ ID NO: 1.
A method for using a cellular telephone having an Operational Signal Generating Device OSGD communicatively coupled with the cellular telephone to control an electronic consumer device, the method comprising: installing a native application on the cellular telephone wherein the native application comprises programming for providing a graphical user interface for display on the display of the cellular telephone and a plurality of codesets including an identified codeset for use in transmitting control communications to the electronic consumer device wherein the codeset for use in transmitting control communications to the electronic consumer device is identified in the plurality of codesets by input received during installation of the native application on the cellular telephone; transferring the identified codeset from the cellular telephone to the OSGD coupled to the cellular telephone wherein the transferred codeset comprises at least one code and at least one of protocol, timing, carrier, and framing information for generating an operational signal that includes the at least one code; and using the transferred codeset at the OSGD to transmit a control communication to the electronic consumer device wherein the control communication transmitted to the electronic consumer device by the OSGD corresponds to an interaction with the graphical user interface when displayed on the display of the cellular telephone as indicated to the OSGD via a data transmission originating from the cellular telephone and received by the OSGD. installing a native application on the cellular telephone wherein the native application comprises programming for providing a graphical user interface for display on the display of the cellular telephone and a plurality of codesets including an identified codeset for use in transmitting control communications to the electronic consumer device wherein the codeset for use in transmitting control communications to the electronic consumer device is identified in the plurality of codesets by input received during installation of the native application on the cellular telephone; transferring the identified codeset from the cellular telephone to the OSGD coupled to the cellular telephone wherein the transferred codeset comprises at least one code and at least one of protocol, timing, carrier, and framing information for generating an operational signal that includes the at least one code; and using the transferred codeset at the OSGD to transmit a control communication to the electronic consumer device wherein the control communication transmitted to the electronic consumer device by the OSGD corresponds to an interaction with the graphical user interface when displayed on the display of the cellular telephone as indicated to the OSGD via a data transmission originating from the cellular telephone and received by the OSGD.
A device, comprising: a bone plate (1, 101) having an upper surface and a bone-facing surface, the bone plate comprising one or more openings (2, 5, 105) extending through the bone plate from the upper surface to the bone-facing surface; one or more sliding elements (3, 103), each sliding element including a fastener receiving hole (4, 14, 114), wherein the one or more openings at least partially surround a periphery of one of the receiving holes, and wherein the one or more openings are at least partially filled with an elastomer (26, 126) to support elastic suspension of the one or more sliding elements in the bone plate, thereby enabling relative displacement between the one or more sliding elements and the bone plate; at least one sensor operable to assess a dynamic parameter of one of the one or more sliding elements within the bone plate; a receiver element located external to the bone plate; and a transmission element operably coupled to the sensor, the transmission element configured to communicate with the receiver element. a bone plate (1, 101) having an upper surface and a bone-facing surface, the bone plate comprising one or more openings (2, 5, 105) extending through the bone plate from the upper surface to the bone-facing surface; one or more sliding elements (3, 103), each sliding element including a fastener receiving hole (4, 14, 114), wherein the one or more openings at least partially surround a periphery of one of the receiving holes, and wherein the one or more openings are at least partially filled with an elastomer (26, 126) to support elastic suspension of the one or more sliding elements in the bone plate, thereby enabling relative displacement between the one or more sliding elements and the bone plate; at least one sensor operable to assess a dynamic parameter of one of the one or more sliding elements within the bone plate; a receiver element located external to the bone plate; and a transmission element operably coupled to the sensor, the transmission element configured to communicate with the receiver element.
A heat exchanger including a portion on whose surface a water-repellent coating is formed, wherein the surface on which the water-repellent coating is formed has a surface structure including a plurality of protrusions, characterized in that the surface on which the water-repellent coating is formed has a surface structure that satisfies all of the following relationships: rw entirety > 0.6 / cos θw, rw protrusion > 0.6 / cos θw, 0.1 < d / L < 0.8, L < 3.0 μ m, and 90 ° < θ w < 120 °, where L is an average pitch of the protrusions, d is an average diameter of the protrusions, rw(entirety) is an average area-enlargement ratio of an entire surface, rw(protrusion) is an average area-enlargement ratio of surface protrusions, and θw is a contact angle of water on a flat surface of the water-repellent coating. wherein the surface on which the water-repellent coating is formed has a surface structure including a plurality of protrusions, characterized in that the surface on which the water-repellent coating is formed has a surface structure that satisfies all of the following relationships: rw entirety > 0.6 / cos θw, rw protrusion > 0.6 / cos θw, 0.1 < d / L < 0.8, L < 3.0 μ m, and 90 ° < θ w < 120 °, L is an average pitch of the protrusions, d is an average diameter of the protrusions, rw(entirety) is an average area-enlargement ratio of an entire surface, rw(protrusion) is an average area-enlargement ratio of surface protrusions, and θw is a contact angle of water on a flat surface of the water-repellent coating.
A digital predistortion arrangement, for predistortion of an input signal, comprising digital predistortion means, a predistortion control arrangement comprising error estimation means for estimating the error produced in the predistorted signal and a predistortion look-up table arrangement, the content of which is updated by the estimation means, characterized in that the predistortion look-up table arrangement comprises at least two look-up tables, that said at least two look-up tables have different number of table entries, and in that it further comprises a combiner for combining the updated values obtained from said at least two look-up tables for a calculated amplitude address of the input signal for each look-up table, into a composite value and in that said composite value comprises a distortion coefficient which is input to said digital pre-distortion arrangement for signal predistortion.
A method for constructing a decoding network, the method comprising: acquiring a universal language model, a domain language model, and a general decoding network generated based on the universal language model; generating a domain decoding network based on the domain language model and the universal language model; and integrating the domain decoding network with the general decoding network to obtain a target decoding network, wherein the method is characterized in that: the generating a domain decoding network based on the domain language model and the universal language model comprises: performing interpolation on the universal language model and the domain language model, wherein a part on which the interpolation is performed comprises all parts in the domain language model and a part in the universal language model which also appears in the domain language model; and generating the domain decoding network based on the part on which the interpolation is performed. acquiring a universal language model, a domain language model, and a general decoding network generated based on the universal language model; generating a domain decoding network based on the domain language model and the universal language model; and integrating the domain decoding network with the general decoding network to obtain a target decoding network, wherein the method is characterized in that: the generating a domain decoding network based on the domain language model and the universal language model comprises: performing interpolation on the universal language model and the domain language model, wherein a part on which the interpolation is performed comprises all parts in the domain language model and a part in the universal language model which also appears in the domain language model; and generating the domain decoding network based on the part on which the interpolation is performed. performing interpolation on the universal language model and the domain language model, wherein a part on which the interpolation is performed comprises all parts in the domain language model and a part in the universal language model which also appears in the domain language model; and generating the domain decoding network based on the part on which the interpolation is performed.