mhurhangee/ep-ind-claims huggingface dataset:
A terminal in a wireless communication system, the terminal comprising: a transceiver; and a processor configured to: receive, from a base station via the transceiver, a radio resource control, RRC, message including configuration information for a report of channel state information, CSI, the configuration information including a first multiple-input multiple-output, MIMO, type configuration and a second MIMO type configuration; receive, from the base station via the transceiver, at least two CSI reference signal, CSI-RS, based on the first MIMO type configuration and the second MIMO type configuration; determine CSI for each of the first MIMO type configuration and second MIMO type configuration; and transmit, to the base station via the transceiver, the CSI, wherein the second MIMO type configuration corresponds to CLASS B and is associated with one non-zero-power CSI-RS resource, wherein, in case that the first MIMO type configuration corresponds to CLASS A and a maximum number of downlink layers supported by the terminal is 4 or 8, a rank indicator, RI, of the CSI for the first and second MIMO type configurations is either 1 or 3. a transceiver; and a processor configured to: receive, from a base station via the transceiver, a radio resource control, RRC, message including configuration information for a report of channel state information, CSI, the configuration information including a first multiple-input multiple-output, MIMO, type configuration and a second MIMO type configuration; receive, from the base station via the transceiver, at least two CSI reference signal, CSI-RS, based on the first MIMO type configuration and the second MIMO type configuration; determine CSI for each of the first MIMO type configuration and second MIMO type configuration; and receive, from a base station via the transceiver, a radio resource control, RRC, message including configuration information for a report of channel state information, CSI, the configuration information including a first multiple-input multiple-output, MIMO, type configuration and a second MIMO type configuration; receive, from the base station via the transceiver, at least two CSI reference signal, CSI-RS, based on the first MIMO type configuration and the second MIMO type configuration; determine CSI for each of the first MIMO type configuration and second MIMO type configuration; and transmit, to the base station via the transceiver, the CSI, wherein the second MIMO type configuration corresponds to CLASS B and is associated with one non-zero-power CSI-RS resource, wherein, in case that the first MIMO type configuration corresponds to CLASS A and a maximum number of downlink layers supported by the terminal is 4 or 8, a rank indicator, RI, of the CSI for the first and second MIMO type configurations is either 1 or 3.
Seat trim for a vehicle seat, said trim comprising a three-dimensionally knitted trim body and a functional element which is integrated into the trim body, characterized in that the functional element is a duct which is knitted into the trim body, in that a fixing element is guided through the duct, and in that a multiplicity of loops are arranged on an outer side of the duct, wherein the loops are formed from a flexible monofilament or multifilament.
Surge arrester comprising a premounted active part which has an arrester column, is arranged in a rigid tubular housing which extends along a longitudinal axis, and is clamped between two branches (5, 6), which close the housing at the end sides, for the purpose of generating an axial contact force, characterized in that the premounted active part has an upper and a lower retaining plate (8, 9) which rest on an upper and, respectively, lower end side of the arrester column and between which the arrester column extends, wherein each retaining plate (8, 9) has at least two cams, and wherein the arrester column is axially held together and radially supported by at least two elastic tensioning loops by each tensioning loop being tensioned between a cam of the upper retaining plate and a corresponding cam of the lower retaining plate.
A method of depositing a metal-containing film comprising: providing a substrate in a vapor deposition reactor; conveying an organometallic compound of the formula [R 2 R 1 X-C(=O)-] n M +m L 1 (m-n)/p L 2 q in the vapor phase to the reactor; and decomposing the organometallic compound to deposit a metal-containing film on the substrate; wherein R 1 and R 2 are independently chosen from H, (C 1 -C 12)alkyl, (C 2 -C 12)alkenyl, (C 2 -C 12)-alkynyl, di(C 1 -C 12)alkylamino, di(silyl(C 1 -C 2)alkyl)amino, disilylamino, di((C 1 -C 12)alkylsilyl)-amino, (C 1 -C 12)alkyliminyl, (C 1 -C 12)alkylphosphinyl, di(C 1 -C 12)alkylamino(C 1 -C 12)alkyl, di(C 1 -C 12)alkylamino(C 2 -C 12)alkenyl, di(C 1 -C 12)alkylamino(C 2 -C 12)alkynyl, di(C 1 -C 12)alkylphosphino-(C 1 -C 12)alkyl, di(C 1 -C 12)alkylphosphino(C 2 -C 12)alkenyl, di(C 1 -C 12)alkylphosphino(C 2 -C 12)-alkynyl, (C 1 -C 12)alkoxyl(C 1 -C 12)alkyl, and aryl; X = N or P; M = a Group 7 to Group 10 metal; L 1 = an anionic ligand bearing a negative charge of p; L 2 = a neutral ligand; m = the valence of M; n = 1-6; p = 1-2; q = 0-4; and m ≥ n. providing a substrate in a vapor deposition reactor; conveying an organometallic compound of the formula [R 2 R 1 X-C(=O)-] n M +m L 1 (m-n)/p L 2 q in the vapor phase to the reactor; and decomposing the organometallic compound to deposit a metal-containing film on the substrate; wherein R 1 and R 2 are independently chosen from H, (C 1 -C 12)alkyl, (C 2 -C 12)alkenyl, (C 2 -C 12)-alkynyl, di(C 1 -C 12)alkylamino, di(silyl(C 1 -C 2)alkyl)amino, disilylamino, di((C 1 -C 12)alkylsilyl)-amino, (C 1 -C 12)alkyliminyl, (C 1 -C 12)alkylphosphinyl, di(C 1 -C 12)alkylamino(C 1 -C 12)alkyl, di(C 1 -C 12)alkylamino(C 2 -C 12)alkenyl, di(C 1 -C 12)alkylamino(C 2 -C 12)alkynyl, di(C 1 -C 12)alkylphosphino-(C 1 -C 12)alkyl, di(C 1 -C 12)alkylphosphino(C 2 -C 12)alkenyl, di(C 1 -C 12)alkylphosphino(C 2 -C 12)-alkynyl, (C 1 -C 12)alkoxyl(C 1 -C 12)alkyl, and aryl; X = N or P; M = a Group 7 to Group 10 metal; L 1 = an anionic ligand bearing a negative charge of p; L 2 = a neutral ligand; m = the valence of M; n = 1-6; p = 1-2; q = 0-4; and m ≥ n.
A connector comprising a control circuit connectable to a coil in a contactor for controlling operation of the contactor; the control circuit comprising a working control circuit for providing a working current to the contactor; wherein the working control circuit comprises a PWM power-saving circuit for connecting with the contactor; wherein, when the contactor is being connected, the PWM power-saving circuit provides a signal with a preset duty ratio to the contactor; and wherein, after the contactor is connected, the PWM power-saving circuit provides a signal with a smaller duty ratio to the contactor to maintain a connected state of the contactor, thereby reducing power consumption, wherein the control circuit further comprises: a controller connected with the control circuit for controlling the operation of the control circuit; an iron core position sensing circuit for producing a signal sensing a position of an iron core in the contactor; a selection circuit connected with the controller and controlled by the controller; and an I/O bus connected with the controller to enable the controller to communicate with an external circuit; wherein the controller processes the signal generated by the iron core position sensing circuit which indicates the sensed position of the iron core, to generate a signal indicating a position state of the iron core and output the signal indicating the position state of the iron core through the I/O bus; and wherein the selection circuit is connected with the coil, and with the iron core position sensing circuit and the working control circuit, so that the selection circuit selects the iron core position sensing circuit or the working control circuit to connect with the coil at different time. a controller connected with the control circuit for controlling the operation of the control circuit; an iron core position sensing circuit for producing a signal sensing a position of an iron core in the contactor; a selection circuit connected with the controller and controlled by the controller; and an I/O bus connected with the controller to enable the controller to communicate with an external circuit; wherein the controller processes the signal generated by the iron core position sensing circuit which indicates the sensed position of the iron core, to generate a signal indicating a position state of the iron core and output the signal indicating the position state of the iron core through the I/O bus; and wherein the selection circuit is connected with the coil, and with the iron core position sensing circuit and the working control circuit, so that the selection circuit selects the iron core position sensing circuit or the working control circuit to connect with the coil at different time.
A heat resistant superalloy having chromium, aluminium, cobalt, titanium and ruthenium as main components, said superalloy consisting of: a) elements in the following amounts: chromium: 2-25% by mass; aluminium: 0.2-7% by mass; cobalt: 19.5-55% by mass; titanium: [0.17 x (% by mass for cobalt - 23) + 3] to [0.17 x (% by mass for cobalt - 20) + 7] % by mass (with the proviso that the amount of the titanium added is 5.1% by mass or more) ruthenium: 0.1-10% by mass; and b) optionally at least one of the following elements: zirconium: 0.01-0.2% by mass; carbon: 0.01-0.15% by mass; boron: 0.005-0.1% by mass; and (i) further optionally, together with at least one of said zirconium, carbon or boron, at least one of molybdenum and tungsten in the following amounts: molybdenum: 5% by mass or less; tungsten: 5% by mass or less; or (ii) further optionally, together with at least one of said zirconium, carbon and boron, at least one of molybdenum and tungsten and at least one of tantalum and niobium in the following amounts: molybdenum: 5% by mass or less; tungsten: 5% by mass or less; tantulum: 2% by mass or less; niobium: 2% by mass or less; the balance being nickel and inevitable impurities. a) elements in the following amounts: chromium: 2-25% by mass; aluminium: 0.2-7% by mass; cobalt: 19.5-55% by mass; titanium: [0.17 x (% by mass for cobalt - 23) + 3] to [0.17 x (% by mass for cobalt - 20) + 7] % by mass (with the proviso that the amount of the titanium added is 5.1% by mass or more) ruthenium: 0.1-10% by mass; and b) optionally at least one of the following elements: zirconium: 0.01-0.2% by mass; carbon: 0.01-0.15% by mass; boron: 0.005-0.1% by mass; and (i) further optionally, together with at least one of said zirconium, carbon or boron, at least one of molybdenum and tungsten in the following amounts: molybdenum: 5% by mass or less; tungsten: 5% by mass or less; or (ii) further optionally, together with at least one of said zirconium, carbon and boron, at least one of molybdenum and tungsten and at least one of tantalum and niobium in the following amounts: molybdenum: 5% by mass or less; tungsten: 5% by mass or less; tantulum: 2% by mass or less; niobium: 2% by mass or less; the balance being nickel and inevitable impurities.
A method for making an animal feed or a food additive, comprising the steps of: obtaining a corn fiber slurry having a moisture content from 30 weight percent to 50 weight percent solids; thermochemically processing said corn fiber slurry to produce a hydrolyzed corn fiber slurry; dewatering said hydrolyzed corn fiber slurry to achieve a first residual corn fiber, said first residual corn fiber having a moisture content from 30 to 80 weight percent solids; washing said first residual corn fiber; dewatering said washed, hydrolyzed corn fiber slurry to achieve a second residual corn fiber, said second residual corn fiber having a moisture content from 30 to 80 weight percent solids; extracting said second residual corn fiber with an extractant and separating at least one phytosterol from said second residual corn fiber to achieve an extracted corn fiber collecting said extracted corn fiber; and making an animal feed or a food additive comprising said extracted corn fiber; wherein said thermochemically processing step includes the steps of: placing said corn fiber slurry in a reactor; heating the corn fiber in said reactor to a temperature between 138°C to 190°C; and maintaining said heating for between 30 minutes to 60 minutes while operating said reactor. thermochemically processing said corn fiber slurry to produce a hydrolyzed corn fiber slurry; dewatering said hydrolyzed corn fiber slurry to achieve a first residual corn fiber, said first residual corn fiber having a moisture content from 30 to 80 weight percent solids; washing said first residual corn fiber; dewatering said washed, hydrolyzed corn fiber slurry to achieve a second residual corn fiber, said second residual corn fiber having a moisture content from 30 to 80 weight percent solids; extracting said second residual corn fiber with an extractant and separating at least one phytosterol from said second residual corn fiber to achieve an extracted corn fiber collecting said extracted corn fiber; and making an animal feed or a food additive comprising said extracted corn fiber; placing said corn fiber slurry in a reactor; heating the corn fiber in said reactor to a temperature between 138°C to 190°C; and maintaining said heating for between 30 minutes to 60 minutes while operating said reactor.
A mechanism for controlling a door handle movable between a rest position in which the handle is flush with the door and a working position in which the handle is projecting with respect to the door and is associated with a door latch by a door latch maneuvering member, the control mechanism comprising a case equipped with a means for fastening to the door, the handle being mounted so as to slide in an opening of the door, the control mechanism comprising: a first lever mounted so as to pivot about a first axis carried by the handle; a second lever mounted so as to pivot about a second axis carried by the handle parallel to the first axis at a distance from the first axis in a longitudinal direction of the handle; a connecting rod having ends connected to the first lever and to the second lever according to hinged connections, the first lever, the second lever, the connecting rod and the handle forming a deformable quadrilateral whose deformation causes a translational displacement of the handle, characterized in that at least one of the hinged connections of connecting rod link has a clearance in a longitudinal direction of the connecting rod.
A method for wireless communications performed by a base station, comprising: determining, based on a location of another base station and information regarding the other base station, that the other base station is likely to experience interference while receiving an uplink transmission due to a downlink transmission by the base station; and forming a null in a beam of the downlink transmission in a direction matching the location of the other base station; and characterised by: wherein the null is formed in all slots when the information does not indicate a set of downlink and uplink slots of the other base station; and wherein when the information indicates a set of DL slots and a set of UL slots of the other base station, the null is only formed in slots in which a downlink slot overlaps with an uplink slot of the other base station. determining, based on a location of another base station and information regarding the other base station, that the other base station is likely to experience interference while receiving an uplink transmission due to a downlink transmission by the base station; and forming a null in a beam of the downlink transmission in a direction matching the location of the other base station; and characterised by: wherein the null is formed in all slots when the information does not indicate a set of downlink and uplink slots of the other base station; and wherein when the information indicates a set of DL slots and a set of UL slots of the other base station, the null is only formed in slots in which a downlink slot overlaps with an uplink slot of the other base station. wherein the null is formed in all slots when the information does not indicate a set of downlink and uplink slots of the other base station; and wherein when the information indicates a set of DL slots and a set of UL slots of the other base station, the null is only formed in slots in which a downlink slot overlaps with an uplink slot of the other base station.
Computer-implemented method for providing data records, comprising: - storing a plurality of data records in individually encrypted form on a storage medium of a server computer system, wherein the server computer system does not have access to the data records in unencrypted form and does not have access to means for decrypting (PrivKC) the data records, wherein each of the unencrypted data records contains one or more field values each stored in their own fields; - storing an unencrypted index on the storage medium by means of the server computer system, wherein the unencrypted index comprises tokens which have been generated by tokenization of a plurality of the field values of the unencrypted data records, wherein each of the tokens contained in the index is linked to one or more pointers to those data records of which the tokenization has generated the token, wherein the index is free of pointers to individual fields of these data records which contain the token; - receiving a search request of a client computer system over a network by means of the server computer system; - as a response to the search request, performing the requested search in the index by means of the server computer system to identify one or more of the data records ([]) as a result of the search; and - returning the one or more identified data records in encrypted form to the client computer system over the network. - storing a plurality of data records in individually encrypted form on a storage medium of a server computer system, wherein the server computer system does not have access to the data records in unencrypted form and does not have access to means for decrypting (PrivKC) the data records, wherein each of the unencrypted data records contains one or more field values each stored in their own fields; - storing an unencrypted index on the storage medium by means of the server computer system, wherein the unencrypted index comprises tokens which have been generated by tokenization of a plurality of the field values of the unencrypted data records, wherein each of the tokens contained in the index is linked to one or more pointers to those data records of which the tokenization has generated the token, wherein the index is free of pointers to individual fields of these data records which contain the token; - receiving a search request of a client computer system over a network by means of the server computer system; - as a response to the search request, performing the requested search in the index by means of the server computer system to identify one or more of the data records ([]) as a result of the search; and - returning the one or more identified data records in encrypted form to the client computer system over the network.
A product container comprising a headspace and a lid, cap or cover, a fragrance-containing gel that is disposed on an interior surface of the lid, cap or cover, wherein the fragrance-containing gel is configured so as not to be exposed to a space outside of the product container until the product container is opened, and wherein the fragrance-containing gel is configured to be exposed to the space outside the product container upon opening of the product container for dispensing a product from the container, characterized in that the fragrance-containing gel contains 85 to 95 weight % fragrance by weight of the fragrance-containing gel and is present on the interior surface of the lid, cap or cover in an amount of 0.05 to 0.06g. a headspace and a lid, cap or cover, a fragrance-containing gel that is disposed on an interior surface of the lid, cap or cover, wherein the fragrance-containing gel is configured so as not to be exposed to a space outside of the product container until the product container is opened, and wherein the fragrance-containing gel is configured to be exposed to the space outside the product container upon opening of the product container for dispensing a product from the container, characterized in that the fragrance-containing gel contains 85 to 95 weight % fragrance by weight of the fragrance-containing gel and is present on the interior surface of the lid, cap or cover in an amount of 0.05 to 0.06g.
An appliance for chip removal comprising a vibration-damping material, wherein the appliance is a tool holder comprising - a shaft intended to be arranged in a manufacturing machine, or in a tool holder of a manufacturing machine; - a head on which a cutter is intended to be arranged, and - a vibration-damping material, arranged such that the cutter is in contact with the manufacturing machine solely via the vibration-damping material, and wherein at least those parts of the surface of the shaft that are intended to be in contact with the manufacturing machine or a tool holder of a manufacturing machine holding said tool holder are provided with the vibration-damping material, said appliance being characterised in that the vibration-damping material is a ceramic material comprising carbon nitride CNx arranged by nano-dimensional cluster form, wherein said nano-dimensional cluster has a size of from 0.5 to 100 nm. - a shaft intended to be arranged in a manufacturing machine, or in a tool holder of a manufacturing machine; - a head on which a cutter is intended to be arranged, and - a vibration-damping material, arranged such that the cutter is in contact with the manufacturing machine solely via the vibration-damping material, and wherein at least those parts of the surface of the shaft that are intended to be in contact with the manufacturing machine or a tool holder of a manufacturing machine holding said tool holder are provided with the vibration-damping material, said appliance being characterised in that the vibration-damping material is a ceramic material comprising carbon nitride CNx arranged by nano-dimensional cluster form, wherein said nano-dimensional cluster has a size of from 0.5 to 100 nm.
A redox flow battery comprising an electrode comprising: a sheet of porous carbon felt; carbon particles impregnated into the porous carbon felt; and ionomer impregnated into the porous carbon felt; characterized in that: the porous carbon felt is oxidized; the carbon particles are oxidized such that they are wettable by water; and the ionomer is a binder for the oxidized carbon particles. a sheet of porous carbon felt; carbon particles impregnated into the porous carbon felt; and ionomer impregnated into the porous carbon felt; characterized in that: the porous carbon felt is oxidized; the carbon particles are oxidized such that they are wettable by water; and the ionomer is a binder for the oxidized carbon particles. the porous carbon felt is oxidized; the carbon particles are oxidized such that they are wettable by water; and the ionomer is a binder for the oxidized carbon particles.
Method for manufacturing a sheath from a film made of a plastic material, according to which: - one of the faces of the film is flat-printed, except for an unprinted area which is left along one of its longitudinal edges; - the film is folded in such a way that the unprinted area of the printed face overlaps with the opposite edge of the unprinted face; - continuous laser welding is carried out along the overlap formed by the two film thicknesses. - one of the faces of the film is flat-printed, except for an unprinted area which is left along one of its longitudinal edges; - the film is folded in such a way that the unprinted area of the printed face overlaps with the opposite edge of the unprinted face; - continuous laser welding is carried out along the overlap formed by the two film thicknesses.