mhurhangee/ep-ind-claims huggingface dataset:
A packaging assembly (10A-D), comprising: a container body (12A-D) defining an interior for housing a product and an opening leading to the interior; a cap (22A-D) that is moveable with respect to the container body (12A-D) so that the assembly is configured for a closed position in which the cap (22A-D) covers the opening, and an opened position in which the opening is exposed; and a seal defined between the container body (12A-D) and the cap (22A-D), the seal comprising a protrusion formed on one of the container body (12A-D) about the opening or the cap (22A-D), and a groove formed on the other of the container body (12A-D) about the opening or the cap (22A-D), wherein the protrusion is received by the groove when the assembly is in the closed position, such that contact is maintained in a sealing relationship around the opening between the groove and the protrusion, wherein the groove has a greater radial thickness than the protrusion, the groove has an inner radial side and an outer radial side, and the protrusion has an inner radial side and an outer radial side, and a) the inner radial side of the groove contacts the inner radial side of the protrusion, but the outer radial side of the groove does not contact the outer radial side of the protrusion; or b) the outer radial side of the groove contacts the outer radial side of the protrusion, but the inner radial side of the groove does not contact the inner radial side of the protrusion; characterized in that the protrusion comprises at least one prong that extends radially inward and contacts a radially inner surface of the groove when the assembly is in the closed position, wherein the at least one prong is flexible and conforms to the shape of the groove, or the at least one prong comprises first and second prongs (172, 174) extending in opposite first and second directions, and the first and second prongs each maintain contact with the groove when the assembly is in the closed position. a container body (12A-D) defining an interior for housing a product and an opening leading to the interior; a cap (22A-D) that is moveable with respect to the container body (12A-D) so that the assembly is configured for a closed position in which the cap (22A-D) covers the opening, and an opened position in which the opening is exposed; and a seal defined between the container body (12A-D) and the cap (22A-D), the seal comprising a protrusion formed on one of the container body (12A-D) about the opening or the cap (22A-D), and a groove formed on the other of the container body (12A-D) about the opening or the cap (22A-D), a) the inner radial side of the groove contacts the inner radial side of the protrusion, but the outer radial side of the groove does not contact the outer radial side of the protrusion; or b) the outer radial side of the groove contacts the outer radial side of the protrusion, but the inner radial side of the groove does not contact the inner radial side of the protrusion;
Method for extracting polyisoprene having a weight-average molecular weight (Mw) higher than 800 000 g/mol, in the form of a dispersion in water, comprising: ▪ grinding, via rotary shearing using a device comprising at least one rotor and at least one stator or grinding at a pH higher than 3 and lower than 8, at least one plant, plant part or plant derivative selected from among guayule ( Parthenium argentatum), spurge ( Euphorbia lathyris), argan ( Argania spinosa), mariola ( Parthenium incanum), rubber rabbitbrush ( Chrysothamnus pinifolius), showy milkweed ( Asclepias speciosa), pale Indian plantain ( Cacalia atripikifolia), rubber vine ( Cryptostegia grandiflora), Russian dandelion ( Taraxacum koksaghyz), scorzonera ( Scorzonera sp.), hoary mountain mint ( Pycnanthemum incanum), Canada germander ( Teucrieum canadense) and Tall Bellflower Campanula americana in a volume of water or in an aqueous solution ranging from 1 to 15 L/kg of plant, into particles of size less than 1 mm; ▪ separating the solid residues. ▪ grinding, via rotary shearing using a device comprising at least one rotor and at least one stator or grinding at a pH higher than 3 and lower than 8, at least one plant, plant part or plant derivative selected from among guayule ( Parthenium argentatum), spurge ( Euphorbia lathyris), argan ( Argania spinosa), mariola ( Parthenium incanum), rubber rabbitbrush ( Chrysothamnus pinifolius), showy milkweed ( Asclepias speciosa), pale Indian plantain ( Cacalia atripikifolia), rubber vine ( Cryptostegia grandiflora), Russian dandelion ( Taraxacum koksaghyz), scorzonera ( Scorzonera sp.), hoary mountain mint ( Pycnanthemum incanum), Canada germander ( Teucrieum canadense) and Tall Bellflower Campanula americana in a volume of water or in an aqueous solution ranging from 1 to 15 L/kg of plant, into particles of size less than 1 mm; ▪ separating the solid residues.
A method of controlling an additive manufacturing process in which one or more energy beams (54,56) are used to selectively fuse a powder to form a workpiece, in the presence of one or more plumes (82,84) generated by interaction of the one or more energy beams (54,56) with the powder, the method comprising determining the trajectory of the one or more plumes (82,84) by sensing or modelling; creating a plume map describing the location and dimensions of each plume (82,84) in 3-D space for any given time, and the propagation of the plumes (82,84) over time; wherein an electronic controller with access to sensed or predicted plume trajectories applies this information from the plume map to determine when to steer or interrupt one of the one or more energy beams (54,56); controlling at least one of: a trajectory of the one or more plumes (82,84), and the one or more energy beams (54,56), so as to prevent the one or more energy beams (54,56) from intersecting the one or more plumes (82,84); wherein one or more of the energy beams (54,56) are steered so as to avoid intersecting the one or more plumes (82,84) and/or wherein one or more of the energy beams (54,56) are interrupted to create a gap in one or more of the plumes (82,84), so that one or more of the energy beams (54,56) may pass though the gap. determining the trajectory of the one or more plumes (82,84) by sensing or modelling; creating a plume map describing the location and dimensions of each plume (82,84) in 3-D space for any given time, and the propagation of the plumes (82,84) over time; wherein an electronic controller with access to sensed or predicted plume trajectories applies this information from the plume map to determine when to steer or interrupt one of the one or more energy beams (54,56); controlling at least one of: a trajectory of the one or more plumes (82,84), and the one or more energy beams (54,56), so as to prevent the one or more energy beams (54,56) from intersecting the one or more plumes (82,84); wherein one or more of the energy beams (54,56) are steered so as to avoid intersecting the one or more plumes (82,84) and/or wherein one or more of the energy beams (54,56) are interrupted to create a gap in one or more of the plumes (82,84), so that one or more of the energy beams (54,56) may pass though the gap.
A method of operating a handheld angle grinder with - a housing, - a drive shaft borne on the housing by means of a bearing, - a drive unit for driving the drive shaft, - handles (6, 7) which are each firmly attached to the housing, - fastening means for fastening a roughing disk to the drive shaft, - an acceleration sensor for producing position change information, - a first sensor means for recording a power consumption value, - evaluating means for evaluating the recorded power consumption value and position change information, - outputting means for outputting an evaluation result of the evaluation by the evaluation means, wherein the evaluation result presents correction information intended for the operator, wherein the correction information allows correction of the local alignment of the angle grinder. - a housing, - a drive shaft borne on the housing by means of a bearing, - a drive unit for driving the drive shaft, - handles (6, 7) which are each firmly attached to the housing, - fastening means for fastening a roughing disk to the drive shaft, - an acceleration sensor for producing position change information, - a first sensor means for recording a power consumption value, - evaluating means for evaluating the recorded power consumption value and position change information, - outputting means for outputting an evaluation result of the evaluation by the evaluation means,
An anode active material for secondary batteries, capable of intercalating and deintercalating ions, the anode active material comprising: a core comprising a crystalline carbon-based material; and a composite coating layer comprising one or more materials selected from the group consisting of low crystalline carbon and amorphous carbon, and a hydrophilic material, wherein the composite coating layer has (i) a structure in which a filler comprising a hydrophilic material is incorporated in a matrix comprising one or more materials selected from the group consisting of low crystalline carbon and amorphous carbon, or (ii) a structure in which a filler comprising one or more materials selected from the group consisting of low crystalline carbon and amorphous carbon is incorporated in a matrix comprising a hydrophilic material; wherein the hydrophilic material is at least one selected from oxides, nitrides and carbides that exhibit relatively high hydrophilicity compared to one or more materials selected from the group consisting of low crystalline carbon and amorphous carbon and do not react with lithium, wherein the oxide is at least one selected from the group consisting of aluminum oxide, magnesium oxide and zirconium oxide, wherein the nitride is silicon nitride, wherein the carbide is at least one selected from the group consisting of silicon carbide and cobalt carbide, and characterized in that an amount of the composite coating layer is 0.5 to 20% by weight, based on the total amount of the anode active material. a core comprising a crystalline carbon-based material; and a composite coating layer comprising one or more materials selected from the group consisting of low crystalline carbon and amorphous carbon, and a hydrophilic material, wherein the composite coating layer has (i) a structure in which a filler comprising a hydrophilic material is incorporated in a matrix comprising one or more materials selected from the group consisting of low crystalline carbon and amorphous carbon, or (ii) a structure in which a filler comprising one or more materials selected from the group consisting of low crystalline carbon and amorphous carbon is incorporated in a matrix comprising a hydrophilic material; wherein the hydrophilic material is at least one selected from oxides, nitrides and carbides that exhibit relatively high hydrophilicity compared to one or more materials selected from the group consisting of low crystalline carbon and amorphous carbon and do not react with lithium, wherein the oxide is at least one selected from the group consisting of aluminum oxide, magnesium oxide and zirconium oxide, wherein the nitride is silicon nitride, wherein the carbide is at least one selected from the group consisting of silicon carbide and cobalt carbide, and characterized in that an amount of the composite coating layer is 0.5 to 20% by weight, based on the total amount of the anode active material.
Compositions containing A) at least one component comprising at least one uretdione group, B) at least one component comprising at least one hydroxyl group, C1) at least one catalyst comprising a structural element of general formulae and/or, in which R 1, R 2, R 3, R 4, R 5 and R 6 independently of one another stand for identical or different radicals which represent saturated or unsaturated, linear or branched, aliphatic, cycloaliphatic, araliphatic or aromatic organic radicals having 1 to 18 carbon atoms which are substituted or unsubstituted and/or have heteroatoms in the chain, wherein the radicals may also in combination with one another and optionally together with a further heteroatom form rings having 3 to 8 carbon atoms which may optionally be further substituted, wherein R 3, R 4, R 5 and R 6 may independently of one another also stand for hydrogen, and R 7 stands for hydrogen or a carboxylate anion (COO -), and C2) at least one catalyst comprising at least one N,N,N'-trisubstituted amidine structure and having an amidine group content (calculated as CN 2; molecular weight = 40) of 12.0% to 47.0% by weight. A) at least one component comprising at least one uretdione group, B) at least one component comprising at least one hydroxyl group, C1) at least one catalyst comprising a structural element of general formulae and/or, in which R 1, R 2, R 3, R 4, R 5 and R 6 independently of one another stand for identical or different radicals which represent saturated or unsaturated, linear or branched, aliphatic, cycloaliphatic, araliphatic or aromatic organic radicals having 1 to 18 carbon atoms which are substituted or unsubstituted and/or have heteroatoms in the chain, wherein the radicals may also in combination with one another and optionally together with a further heteroatom form rings having 3 to 8 carbon atoms which may optionally be further substituted, wherein R 3, R 4, R 5 and R 6 may independently of one another also stand for hydrogen, and R 7 stands for hydrogen or a carboxylate anion (COO -), and R 1, R 2, R 3, R 4, R 5 and R 6 independently of one another stand for identical or different radicals which represent saturated or unsaturated, linear or branched, aliphatic, cycloaliphatic, araliphatic or aromatic organic radicals having 1 to 18 carbon atoms which are substituted or unsubstituted and/or have heteroatoms in the chain, wherein the radicals may also in combination with one another and optionally together with a further heteroatom form rings having 3 to 8 carbon atoms which may optionally be further substituted, wherein R 3, R 4, R 5 and R 6 may independently of one another also stand for hydrogen, and R 7 stands for hydrogen or a carboxylate anion (COO -), and C2) at least one catalyst comprising at least one N,N,N'-trisubstituted amidine structure and having an amidine group content (calculated as CN 2; molecular weight = 40) of 12.0% to 47.0% by weight.
A method for a node to schedule a clear to send, CTS, in a communication network, the method comprising the steps of: - transmitting a request to send, RTS, in an unlicensed band for indicating a CTS scheduling information to a user equipment, UE, the CTS scheduling information indicates time and frequency resources for the UE to send a CTS in an uplink licensed band in response to the RTS; and - receiving the CTS from the UE in the licensed band based on the CTS scheduling information. - transmitting a request to send, RTS, in an unlicensed band for indicating a CTS scheduling information to a user equipment, UE, the CTS scheduling information indicates time and frequency resources for the UE to send a CTS in an uplink licensed band in response to the RTS; and - receiving the CTS from the UE in the licensed band based on the CTS scheduling information.
A surgical blade assembly for a surgical saw, the surgical blade assembly comprising: a blade comprising a body portion having a proximal end, a distal end, and a length between the proximal and distal ends (60, 62), with the body portion having opposed top and bottom surfaces (64, 66) and opposed first and second side surfaces (68, 70) between the top and bottom surfaces (64, 66), and the blade having one or more teeth that extend outwardly from at least one of the top and bottom surfaces (64, 66) of the body portion; and a reinforcing member comprising a body portion having a proximal end, a distal end, and a length that extends between the proximal and distal ends (76, 78), and the reinforcing member comprising a first arm extending from the distal end of the body portion of the reinforcing member and a second arm extending from the distal end of the body portion of the reinforcing member and being spaced from the first arm to define a receiving portion configured to receive the proximal end of the body portion of the blade, wherein the first and second arms (88, 90) are configured to abut the first and second side surfaces (68, 70) of the body portion of the blade to act as a strut to reinforce the blade when the receiving portion receives the proximal end of the body portion of the blade, characterized in that the blade and the reinforcing member are perpendicular to each other when the receiving portion receives the proximal end of the body portion of the blade. a blade comprising a body portion having a proximal end, a distal end, and a length between the proximal and distal ends (60, 62), with the body portion having opposed top and bottom surfaces (64, 66) and opposed first and second side surfaces (68, 70) between the top and bottom surfaces (64, 66), and the blade having one or more teeth that extend outwardly from at least one of the top and bottom surfaces (64, 66) of the body portion; and a reinforcing member comprising a body portion having a proximal end, a distal end, and a length that extends between the proximal and distal ends (76, 78), and the reinforcing member comprising a first arm extending from the distal end of the body portion of the reinforcing member and a second arm extending from the distal end of the body portion of the reinforcing member and being spaced from the first arm to define a receiving portion configured to receive the proximal end of the body portion of the blade, wherein the first and second arms (88, 90) are configured to abut the first and second side surfaces (68, 70) of the body portion of the blade to act as a strut to reinforce the blade when the receiving portion receives the proximal end of the body portion of the blade, characterized in that the blade and the reinforcing member are perpendicular to each other when the receiving portion receives the proximal end of the body portion of the blade.
A method implemented on a packet processor, the method comprising: in response to receiving an incoming packet, checking workload usage of an isolation group, IG, associated with the incoming packet, wherein the IG is a classification of packets defined for the purpose of processing the incoming packet, and wherein the workload usage of the IG is a measure of packet processing consumed by the IG; determining whether the workload usage of the IG associated with the incoming packet indicates that the workload usage of the IG exceeds a predetermined threshold; forwarding the incoming packet to be executed by a packet execution unit in response to the workload usage of the IG associated with the incoming packet not exceeding the predetermined threshold; rejecting the incoming packet in response to the workload usage of the IG associated with the incoming packet exceeding the predetermined threshold, wherein the rejection causes the incoming packet being either buffered, discarded, or being processed on a best-effort basis; and updating the workload usage of the IG associated with the incoming packet based on execution of the incoming packet by the packet execution unit. in response to receiving an incoming packet, checking workload usage of an isolation group, IG, associated with the incoming packet, wherein the IG is a classification of packets defined for the purpose of processing the incoming packet, and wherein the workload usage of the IG is a measure of packet processing consumed by the IG; determining whether the workload usage of the IG associated with the incoming packet indicates that the workload usage of the IG exceeds a predetermined threshold; forwarding the incoming packet to be executed by a packet execution unit in response to the workload usage of the IG associated with the incoming packet not exceeding the predetermined threshold; rejecting the incoming packet in response to the workload usage of the IG associated with the incoming packet exceeding the predetermined threshold, wherein the rejection causes the incoming packet being either buffered, discarded, or being processed on a best-effort basis; and updating the workload usage of the IG associated with the incoming packet based on execution of the incoming packet by the packet execution unit.
A network device, comprising: a communications unit, configured to send at least one piece of downlink control information, DCI, to a terminal device; determine multiple uplink channels transmitted within a target time unit, wherein the multiple uplink channels at least partially overlap in time domain, and the at least one piece of DCI is used for indicating at least one uplink channel of the multiple uplink channels; and receive from the terminal device, when the multiple uplink channels fulfill a constraint condition, uplink control information, UCI, multiplexed in one uplink channel within the target time unit, wherein the constraint condition comprises: a first symbol of an earliest uplink channel among the multiple uplink channels is not before an A th symbol after a last symbol of a physical downlink control channel, PDCCH, carrying the at least one piece of DCI, wherein A is a non-negative integer related to a preparation time of a PUSCH, wherein the multiple uplink channels comprise at least one physical uplink control channel, PUCCH, carrying acknowledgement/negative-acknowledgement, ACK/NACK, corresponding to a target physical downlink shared channel, PDSCH; wherein the constraint condition further comprises: the first symbol of the earliest uplink channel of the multiple uplink channels is not before a B th symbol after a last symbol of the target PDSCH, wherein B is a non-negative integer, and wherein B=N1+1+d 1,2, where N1 is a PDSCH processing time, and a value of d 1,2 is related to a PDSCH mapping manner. a communications unit, configured to send at least one piece of downlink control information, DCI, to a terminal device; determine multiple uplink channels transmitted within a target time unit, wherein the multiple uplink channels at least partially overlap in time domain, and the at least one piece of DCI is used for indicating at least one uplink channel of the multiple uplink channels; and receive from the terminal device, when the multiple uplink channels fulfill a constraint condition, uplink control information, UCI, multiplexed in one uplink channel within the target time unit, wherein the constraint condition comprises: a first symbol of an earliest uplink channel among the multiple uplink channels is not before an A th symbol after a last symbol of a physical downlink control channel, PDCCH, carrying the at least one piece of DCI, wherein A is a non-negative integer related to a preparation time of a PUSCH, wherein the multiple uplink channels comprise at least one physical uplink control channel, PUCCH, carrying acknowledgement/negative-acknowledgement, ACK/NACK, corresponding to a target physical downlink shared channel, PDSCH; wherein the constraint condition further comprises: the first symbol of the earliest uplink channel of the multiple uplink channels is not before a B th symbol after a last symbol of the target PDSCH, wherein B is a non-negative integer, and wherein B=N1+1+d 1,2, where N1 is a PDSCH processing time, and a value of d 1,2 is related to a PDSCH mapping manner.