mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: combining a first organic salt (A 1 X 1), a first metal salt (M 1 (X 2) 2), a second organic salt (A 2 X 3), a second metal salt (M 2 Cl 2), and a solvent to form a primary solution, wherein: A 1 X 1 and M 1 (X 2) 2 are present in the primary solution at a first ratio between 0.5 to 1.5 (A 1 X 1): 1 (M 1 (X 2) 2); and A 2 X 3 to M 2 Cl 2 are present in the primary solution at a second ratio between 2 to 4 (A 2 X 3): 1(M 2 Cl 2), wherein at least one of A 1 or A 2 comprises formamidinium. A 1 X 1 and M 1 (X 2) 2 are present in the primary solution at a first ratio between 0.5 to 1.5 (A 1 X 1): 1 (M 1 (X 2) 2); and A 2 X 3 to M 2 Cl 2 are present in the primary solution at a second ratio between 2 to 4 (A 2 X 3): 1(M 2 Cl 2), wherein at least one of A 1 or A 2 comprises formamidinium.
A cleansing composition comprising: a) detersive surfactant; b) a cationic polymer; c) a silicone conditioning agent; and d) a cellulosic material selected from fermentation derived cellulose. a) detersive surfactant; b) a cationic polymer; c) a silicone conditioning agent; and d) a cellulosic material selected from fermentation derived cellulose.
A method for producing a knit structure with reduced curling outward and/or rolling at its fabric end, said method comprising: carrying yarn using cylinder needles and knitting a START part of the knit structure extending one or more courses; dividing needles of the cylinder needles into at least two sections comprising a knit needle section and a miss needle section and producing a FALSE BAND section adjacent to the START part, said FALSE BAND comprising multiple courses of a knit stitch and a miss stitch; and starting needles of the miss needles sections to knit and form a CLOSE part adjacent to said FALSE BAND, wherein a course of the START part is interconnected with a course of the CLOSE part resulting in a knit structure with higher tension and force toward the inside, opposing the rolling over phenomenon without compromising the cross-stretch extension; characterised in that an additional yarn is included such that the weight of the fabric of the CLOSE part is increased with respect to the FALSE BAND part. carrying yarn using cylinder needles and knitting a START part of the knit structure extending one or more courses; dividing needles of the cylinder needles into at least two sections comprising a knit needle section and a miss needle section and producing a FALSE BAND section adjacent to the START part, said FALSE BAND comprising multiple courses of a knit stitch and a miss stitch; and starting needles of the miss needles sections to knit and form a CLOSE part adjacent to said FALSE BAND, wherein a course of the START part is interconnected with a course of the CLOSE part resulting in a knit structure with higher tension and force toward the inside, opposing the rolling over phenomenon without compromising the cross-stretch extension; characterised in that an additional yarn is included such that the weight of the fabric of the CLOSE part is increased with respect to the FALSE BAND part.
A sealed multilayer structure comprising: (a) a first uniaxially oriented multilayer film having a first oriented film thickness, the first oriented film comprising: a first layer comprising polyamide; a sealant layer comprising at least one polyethylene having a density from 0.865 g/cm 3 to 0.965 g/cm 3 and a melt index (I 2) from 0.1 to 10 g/10 minutes measured in accordance with ASTM D-1238 at 190 °C and at 2.16 kg load; and a tie layer in adhering contact with the first layer and the sealant layer, wherein the film is oriented in the machine direction at a draw ratio greater than 1:1 and less than 4:1, and (b) a second multilayer film comprising a sealant layer and having a second film thickness; wherein the sealant layer of the first oriented film is sealed to the sealant layer of the second film, and wherein the total thickness of the sealed films is at least 5 percent greater than the sum of the first oriented film thickness and the second film thickness. (a) a first uniaxially oriented multilayer film having a first oriented film thickness, the first oriented film comprising: a first layer comprising polyamide; a sealant layer comprising at least one polyethylene having a density from 0.865 g/cm 3 to 0.965 g/cm 3 and a melt index (I 2) from 0.1 to 10 g/10 minutes measured in accordance with ASTM D-1238 at 190 °C and at 2.16 kg load; and a tie layer in adhering contact with the first layer and the sealant layer, wherein the film is oriented in the machine direction at a draw ratio greater than 1:1 and less than 4:1, and a first layer comprising polyamide; a sealant layer comprising at least one polyethylene having a density from 0.865 g/cm 3 to 0.965 g/cm 3 and a melt index (I 2) from 0.1 to 10 g/10 minutes measured in accordance with ASTM D-1238 at 190 °C and at 2.16 kg load; and a tie layer in adhering contact with the first layer and the sealant layer, (b) a second multilayer film comprising a sealant layer and having a second film thickness;
A data sending method, implemented by user equipment, UE, comprising: receiving an uplink scheduling grant, wherein the uplink scheduling grant comprises first resource indication information; determining (S102, S202) a target resource based on the first resource indication information, wherein the target resource is allocated resource blocks in N basic resource elements, resource blocks of a carrier are divided into the N basic resource elements, the carrier is indicated by the uplink scheduling grant for the UE to send uplink data, each basic resource element comprises more than one resource block, N are natural numbers, and N>1, wherein each of the N basic resource elements comprises a same quantity of resource blocks; and sending the uplink data on the target resource; wherein the first resource indication information indicates location information of allocated resource blocks in one basic resource element, and the determining (S102, S202) a target resource based on the first resource indication information comprises: determining allocated resource blocks in each of the N basic resource elements based on the location information, and the allocated resource blocks form the target resource; wherein a location of the allocated resource blocks in each of the N basic resource elements is the same as a location indicated by the first resource indication information. receiving an uplink scheduling grant, wherein the uplink scheduling grant comprises first resource indication information; determining (S102, S202) a target resource based on the first resource indication information, wherein the target resource is allocated resource blocks in N basic resource elements, resource blocks of a carrier are divided into the N basic resource elements, the carrier is indicated by the uplink scheduling grant for the UE to send uplink data, each basic resource element comprises more than one resource block, N are natural numbers, and N>1, wherein each of the N basic resource elements comprises a same quantity of resource blocks; and sending the uplink data on the target resource; wherein the first resource indication information indicates location information of allocated resource blocks in one basic resource element, and the determining (S102, S202) a target resource based on the first resource indication information comprises: determining allocated resource blocks in each of the N basic resource elements based on the location information, and the allocated resource blocks form the target resource; wherein a location of the allocated resource blocks in each of the N basic resource elements is the same as a location indicated by the first resource indication information. determining allocated resource blocks in each of the N basic resource elements based on the location information, and the allocated resource blocks form the target resource; wherein a location of the allocated resource blocks in each of the N basic resource elements is the same as a location indicated by the first resource indication information.
A method for a continuous production of a high-molecular-weight polycarbonate resin which comprises a process of producing an aromatic polycarbonate prepolymer by a polycondensation reaction of an aromatic dihydroxy compound with diester carbonate in a polycondensation reactor and a process of conducting a linking and highly-polymerizing reaction of said aromatic polycarbonate prepolymer produced by said process with an aliphatic diol compound in a linking and highly-polymerizing reactor, wherein said aromatic polycarbonate prepolymer produced by said process is continuously fed into the linking and highly-polymerizing reactor while said aliphatic diol compound is continuously fed into the linking and highly-polymerizing reactor under reduced pressure of 1333 Pa (10 torr) or less. a process of producing an aromatic polycarbonate prepolymer by a polycondensation reaction of an aromatic dihydroxy compound with diester carbonate in a polycondensation reactor and a process of conducting a linking and highly-polymerizing reaction of said aromatic polycarbonate prepolymer produced by said process with an aliphatic diol compound in a linking and highly-polymerizing reactor, wherein said aromatic polycarbonate prepolymer produced by said process is continuously fed into the linking and highly-polymerizing reactor while said aliphatic diol compound is continuously fed into the linking and highly-polymerizing reactor under reduced pressure of 1333 Pa (10 torr) or less.
A method comprising: sending, by an endpoint sender device, a first request to send, RTS, to a first endpoint receiver device connected to the endpoint sender device by a packet-switched network, the first RTS associated with a first bandwidth reservation from the first endpoint receiver device for reception of messages from the endpoint sender device, the first RTS indicating a first number of messages that the endpoint sender device has to send to the first endpoint receiver device, and a size or sizes of the message or messages associated with the first RTS; and in response to receiving, by the endpoint sender device, a response from the first endpoint receiver device providing clearance to send a second number of messages that is less than the first number of messages to the first endpoint receiver device using the first reserved bandwidth of the first endpoint receiver device, the first RTS and the response creating an effective circuit between the endpoint sender device and first endpoint receiver device over the packet-switched network, sending the second number of messages from the endpoint sender device to the first endpoint receiver device. sending, by an endpoint sender device, a first request to send, RTS, to a first endpoint receiver device connected to the endpoint sender device by a packet-switched network, the first RTS associated with a first bandwidth reservation from the first endpoint receiver device for reception of messages from the endpoint sender device, the first RTS indicating a first number of messages that the endpoint sender device has to send to the first endpoint receiver device, and a size or sizes of the message or messages associated with the first RTS; and in response to receiving, by the endpoint sender device, a response from the first endpoint receiver device providing clearance to send a second number of messages that is less than the first number of messages to the first endpoint receiver device using the first reserved bandwidth of the first endpoint receiver device, the first RTS and the response creating an effective circuit between the endpoint sender device and first endpoint receiver device over the packet-switched network, sending the second number of messages from the endpoint sender device to the first endpoint receiver device.
A tractor steering and braking arrangement comprising a substantially vertically extending structural support column for connection at a lower end to a floor of a tractor cab and carrying means to support a steering wheel at its upper end, at least one hydraulic master cylinder (29, 30) for operation of brakes of the tractor supported within the column, the master cylinder (29, 30) including an operating rod (27, 28) and an associated piston which is moved substantially vertically by an associated brake operating pedal (19, 20), the pedal being positioned at one side of the structural support column and supported for pivoting from the column.
Method for operating a data transfer system (2, 36, 50, 68, 72) in which - a first data transfer device (4, 6, 52) is connected to a first data line (14, 16, 64) that is connected to a first data interface (10, 12, 62) of a control unit (8, 38, 40, 54-60), - a second data transfer device (4, 6, 52) is connected to a second data line (14, 16, 64) that is connected to a second data interface (10, 12, 62) of the control unit (8, 38, 40, 54-60), and - data is transferred over the first data interface (10, 12, 62), wherein transfer of data over the second data interface (10, 12, 62) is prevented, wherein the first data transfer device and the second data transfer device are used by the control unit for data transfer, wherein an energy supply to the second data interface (10, 12, 62) is switched off in order to prevent the transfer of data over the second data interface (10, 12, 62), and the control unit (8, 38, 40, 54-60) continues to be supplied with power after the energy supply has been switched off. - a first data transfer device (4, 6, 52) is connected to a first data line (14, 16, 64) that is connected to a first data interface (10, 12, 62) of a control unit (8, 38, 40, 54-60), - a second data transfer device (4, 6, 52) is connected to a second data line (14, 16, 64) that is connected to a second data interface (10, 12, 62) of the control unit (8, 38, 40, 54-60), and - data is transferred over the first data interface (10, 12, 62), wherein transfer of data over the second data interface (10, 12, 62) is prevented, wherein the first data transfer device and the second data transfer device are used by the control unit for data transfer,
A magnesium alloy consisting of (as percentage by weight) more than 0.0 to 5.0 % zinc optionally more than 0.0 to 1.0 % zirconium more than 0.0 to 1.0 % calcium optionally more than 0.0 to 1.0 % manganese optionally more than 0.0 to 0.5 % silicon optionally more than 0.0 to 1.0 % silver up to 0.5 % aluminium as a maximum and at least one element chosen from the group comprising more than 0.05 % to 0.6 % yttrium more than 0.05 to 1.2 % ytterbium more than 0.05 to 1.2 % gadolinium residual magnesium and production-related impurities.
A shoe derailment device for use in derailing a conductor shoe assembly of a bridge crane from a conductor rail assembly, the shoe derailment device comprising a wedge head provided at a longitudinal end of a body made of an electrically insulating material, the shoe derailment device being securable to the conductor rail assembly in a derailment position in which the shoe derailment device is positioned outside an operating zone of the bridge crane, in longitudinal alignment with the conductor rail assembly, in a movement path of the conductor shoe assembly, with the wedge head facing the operating zone in a manner that if the conductor shoe assembly is moved outside the operating zone, into the area occupied by the shoe derailment device, the conductor shoe assembly is derailed from the conductor rail assembly as the conductor shoe assembly engages the wedge head and is maintained in a derailed state by the electrically insulating material when the conductor shoe assembly is engaged with the body.
Prosthetic joint part, in particular for a finger joint, consisting of either a proximal or distal component, and also of a shaft which extends away from this component, is to be mounted in a bone, is configured at least in part as an expansion sleeve and has a continuous bore within which an expansion body is provided that is displaceable therein, characterized in that respective threads (10; 11) are provided at least in the starting region of the continuous bore of the shaft formed with the expansion sleeve, and of the expansion body, which threads (10; 11) interact in such a way that, after the expansion body has been screwed into the bore, not only do the two threads (10; 11) interact, the thread of the expansion body is in addition partially cut (11.1) into the bore of the shaft in order to generate static friction.
A suspension arrangement for interconnecting a vehicle frame and axle, comprising: a control arm comprising a beam (22, 24) having a first end with a single arm and a second end with an upper arm and a lower arm diverging to define a Y-shape, the first end being connectable to a vehicle frame, and the second end being connectable to a vehicle axle disposed between the upper and lower arms; a bushing arrangement mountable to the vehicle axle, the bushing arrangement having an upper bushing assembly having an upper bushing formed from a resilient material connecting to the upper arm and a lower bushing assembly having a lower bushing formed from a resilient materiel connecting to the lower arm, the upper bushing assembly and the lower bushing assembly being interconnected and providing a space therebetween for the vehicle axle, the upper bushing and lower bushing each having a selected rate. a control arm comprising a beam (22, 24) having a first end with a single arm and a second end with an upper arm and a lower arm diverging to define a Y-shape, the first end being connectable to a vehicle frame, and the second end being connectable to a vehicle axle disposed between the upper and lower arms; a bushing arrangement mountable to the vehicle axle, the bushing arrangement having an upper bushing assembly having an upper bushing formed from a resilient material connecting to the upper arm and a lower bushing assembly having a lower bushing formed from a resilient materiel connecting to the lower arm, the upper bushing assembly and the lower bushing assembly being interconnected and providing a space therebetween for the vehicle axle, the upper bushing and lower bushing each having a selected rate.
A computer-implemented method for quantification of RNA expression from RNA sequence reads, comprising: (a) hierarchically assigning RNA sequence reads from at least one cell to RNA feature annotations according to RNA transcript length, to yield feature-read pairs assigned as small RNA, long exonic RNA, or long intronic RNA; wherein the hierarchical assignation comprises three sequential rounds having a hierarchy of small RNA, then long exonic RNA, then long intronic RNA, such that the assignation comprises assigning RNA sequence reads that overlap a small RNA feature and a long RNA feature as small RNA, followed by assigning RNA sequence reads as long exonic RNA, followed by assigning remaining RNA sequence reads as long intronic RNA, and wherein RNA sequence reads with at least one alignment overlapping with a feature annotation in the current round are assigned to such feature and skipped in subsequent rounds, and (b) detecting communities of highly-related features of the feature-read pairs, thereby quantifying expression of RNA sequence reads, including communities of RNA sequence reads, wherein communities are detected from a graph of feature-read pairs, wherein each vertex of the graph is a transcriptomic feature and edges connect two vertices for which multi-mapping reads exist, optionally wherein the edges between two vertices comprise pairs of edges. (a) hierarchically assigning RNA sequence reads from at least one cell to RNA feature annotations according to RNA transcript length, to yield feature-read pairs assigned as small RNA, long exonic RNA, or long intronic RNA; wherein the hierarchical assignation comprises three sequential rounds having a hierarchy of small RNA, then long exonic RNA, then long intronic RNA, such that the assignation comprises assigning RNA sequence reads that overlap a small RNA feature and a long RNA feature as small RNA, followed by assigning RNA sequence reads as long exonic RNA, followed by assigning remaining RNA sequence reads as long intronic RNA, and wherein RNA sequence reads with at least one alignment overlapping with a feature annotation in the current round are assigned to such feature and skipped in subsequent rounds, and (b) detecting communities of highly-related features of the feature-read pairs, thereby quantifying expression of RNA sequence reads, including communities of RNA sequence reads, wherein communities are detected from a graph of feature-read pairs, wherein each vertex of the graph is a transcriptomic feature and edges connect two vertices for which multi-mapping reads exist, optionally wherein the edges between two vertices comprise pairs of edges.
Ridge or hip lath arrangement having a ridge lath and a plurality of holding elements (2, 3), each of which can be fastened to a roof substructure by means of a base, and a head having a front flank extending in the horizontal direction for supporting the ridge lath, which head engages in a profile opening of the ridge lath in the mounted position, having locking elements (6, 7; 21, 22) of the head and the profile opening, respectively, that interact with one another in pairs in order to apply a locking force for fixing the head in the profile opening in the mounted position, which force is to be overcome when the head enters the profile opening, the locking element being formed of side flanks of the head and side flanks of the profile opening which are mirror-symmetric with respect to the central plane of the head, characterised in that the head is formed of a sheet-metal strip bent multiple times, in which strip the front flank transitions into the side flanks, forming an angle < 90°.
A rotor disk for a fan in a turbomachine, comprising in its periphery a plurality of substantially axial grooves for the installation and retention of vane roots having hooks at their downstream ends, deformable regions formed by cavities being situated at the downstream end of the grooves, characterized in that the cavities are formed in attachment flanges for inter-vane platforms, these flanges extending substantially in line with the side walls of the grooves 22.
A highly cut-resistant ultrahigh molecular weight polyethylene fiber, comprising ultrahigh molecular weight polyethylene and an inorganic ultrafine micropowder having a nanocrystalline structural morphology, wherein the inorganic ultrafine micropowder is silicon carbide, and has an average diameter of 0.1-300 μm and a content of 0.1 - 14% of the total weight of the fiber, wherein the surface layer of the ultrafine silicon carbide_micropowder has one-dimensional nano-wire, nanorod, or nanobelt distribution of several nanometers in thickness, the structure of which corresponds to a distinct pattern of chemical bonding from that of the silicon atoms in the corresponding powder bulk, and the ratio of the atoms of the distinct pattern of chemical bonding in the surface layer of the bulk inorganic element atoms is 0.15-0.35, the distinct pattern of chemical bonding of the elements in the surface layer being determined by X-ray photoelectron spectroscopy.