mhurhangee/ep-ind-claims huggingface dataset:
Laundry treating appliance comprising: a cabinet formed by a top panel ( 105 T), a bottom panel, and upright panels ( 105 F, 105 S) extending between the top and bottom panels, an air inlet and/or outlet ( 130 IN, 130 OUT) provided on a front face of one of said upright panels ( 105 F, 105 S) for allowing ambient air ( A F,IN A F,OUT) to enter and/or exit the appliance, characterized in that a bottom face of said one upright panel ( 105 F, 105 S) faces the floor on which the appliance rests and further comprises at least one auxiliary air inlet and/or outlet ( 130 INaux, 130 OUTaux) for allowing auxiliary ambient air ( A F,INaux, A F,OUTaux) to enter and/or exit, respectively, the appliance from below, said at least one auxiliary air inlet and/or outlet ( 130 INaux, 130 OUTaux) being in fluid communication with said air inlet and/or outlet ( 130 IN, 130 OUT), respectively, such that ambient air ( A F,IN A F,OUT) entering and/or exiting the appliance sums to, respectively, the auxiliary ambient air ( A F,INaux, A F,OUTaux) entering and/or exiting the appliance. a cabinet formed by a top panel ( 105 T), a bottom panel, and upright panels ( 105 F, 105 S) extending between the top and bottom panels, an air inlet and/or outlet ( 130 IN, 130 OUT) provided on a front face of one of said upright panels ( 105 F, 105 S) for allowing ambient air ( A F,IN A F,OUT) to enter and/or exit the appliance, characterized in that a bottom face of said one upright panel ( 105 F, 105 S) faces the floor on which the appliance rests and further comprises at least one auxiliary air inlet and/or outlet ( 130 INaux, 130 OUTaux) for allowing auxiliary ambient air ( A F,INaux, A F,OUTaux) to enter and/or exit, respectively, the appliance from below, said at least one auxiliary air inlet and/or outlet ( 130 INaux, 130 OUTaux) being in fluid communication with said air inlet and/or outlet ( 130 IN, 130 OUT), respectively, such that ambient air ( A F,IN A F,OUT) entering and/or exiting the appliance sums to, respectively, the auxiliary ambient air ( A F,INaux, A F,OUTaux) entering and/or exiting the appliance.
Aqueous polyurethane dispersions containing an anionically hydrophilized and non-ionically hydrophilized polyurethane polymer comprising a) 8 weight-% to 40 weight-% of one or more polyisocyanate compounds selected from the group consisting of aromatic polyisocyanates having a functionality ≥ 2, aliphatic polyisocyanates having a functionality ≥ 2 and cycloaliphatic polyisocyanates having a functionality ≥ 2, b) 40 weight-% to 85 weight-% of one or more polyhydroxy compounds with a molar mass M n of 400 to 8000 g/mol and a functionality of 1.5 to 6, c) optionally one or more polyhydroxy compounds with a molar mass < 400 g/mol and a functionality of 2 to 4, d) 1 weight-% to 25 weight-% of one or more nonionic, isocyanate-reactive hydrophilicizing agents, e) 0.5 weight-% to 7 weight-% of one or more isocyanate-reactive, ionic or potentially ionic hydrophilicizing agents, f) optionally one or more polyamines having a molar mass of 32 to 400 g/mol and a functionality of 1 to 3, and g) 0.1 weight-% to 4 weight-% of one or more dihydrazide compounds, wherein the stated amounts relate to all structural components of the polyurethane polymer, wherein the aqueous polyurethane dispersions of the invention are prepared by first reacting components a), b), optionally c), d) and e), if e) does not contain any primary or secondary amino groups, to prepare a polyurethane prepolymer containing free isocyanate groups in an amount of 1 weight-% to 5 weight-%, related to weight of the polyurethane prepolymer, which in a further step is chain-extended with components optionally f) and g) and e), if e) does contain any primary or secondary amino groups, and is transferred to the aqueous phase and wherein the degree of chain extension, corresponding to the equivalent ratio of NCO-reactive groups of the compounds used for chain extension to free NCO groups of the prepolymer, is situated between 40% to 100%. a) 8 weight-% to 40 weight-% of one or more polyisocyanate compounds selected from the group consisting of aromatic polyisocyanates having a functionality ≥ 2, aliphatic polyisocyanates having a functionality ≥ 2 and cycloaliphatic polyisocyanates having a functionality ≥ 2, b) 40 weight-% to 85 weight-% of one or more polyhydroxy compounds with a molar mass M n of 400 to 8000 g/mol and a functionality of 1.5 to 6, c) optionally one or more polyhydroxy compounds with a molar mass < 400 g/mol and a functionality of 2 to 4, d) 1 weight-% to 25 weight-% of one or more nonionic, isocyanate-reactive hydrophilicizing agents, e) 0.5 weight-% to 7 weight-% of one or more isocyanate-reactive, ionic or potentially ionic hydrophilicizing agents, f) optionally one or more polyamines having a molar mass of 32 to 400 g/mol and a functionality of 1 to 3, and g) 0.1 weight-% to 4 weight-% of one or more dihydrazide compounds,
Injection-moulded plastic crate, comprising: - a bottom; - upright walls extending from the bottom; - a substantially vertical stiffening rib that is arranged on at least one of the upright walls, wherein the vertical stiffening rib takes a hollow form, - characterized in that the at least one stiffening rib comprises: - a main part adjacent to the upright wall and comprising a cavity; and - a plate-like part extending outward from the main part, wherein the width of the plate-like part is narrower than the width of the main part, measured in the direction along the upright wall; a plate like profile that extends along the upright wall from an upper end of the substantially vertical stiffening rib to the bottom under an angle with the substantially vertical stiffening rib, wherein the crate comprises at least two vertical stiffening ribs, wherein a first one of the at least two vertical stiffening ribs is positioned at a corner point of the crate and a second of the at least two vertical stiffening ribs is positioned on the upright wall near the first rib, wherein the plate like profile extends from the upper end of the first rib to a lower end of the second rib. - a bottom; - upright walls extending from the bottom; - a substantially vertical stiffening rib that is arranged on at least one of the upright walls, wherein the vertical stiffening rib takes a hollow form, - characterized in that the at least one stiffening rib comprises: - a main part adjacent to the upright wall and comprising a cavity; and - a plate-like part extending outward from the main part, wherein the width of the plate-like part is narrower than the width of the main part, measured in the direction along the upright wall; - a main part adjacent to the upright wall and comprising a cavity; and - a plate-like part extending outward from the main part,
Follicle-stimulating hormone ligand which potentiates the bioactivity of FSH, of luteinizing hormone, and of chorionic gonadotropin, characterized in that said ligand is an antibody or a fragment thereof and in that: the heavy chain variable domain contains the following CDRs: - VH-CDR1, defined by the sequence GFTFSSSY (SEQ ID NO: 5); - VH-CDR2, defined by the sequence IYAGTGGT (SEQ ID NO: 6); - VH-CDR3, defined by the sequence ARHGSYFDY (SEQ ID NO: 7); and the light chain variable domain contains the following CDRs: - VL-CDR1, defined by the sequence QSVDYDGDSY (SEQ ID NO: 8); - VL-CDR2, defined by the sequence AAS; - VL-CDR3, defined by the sequence QQSNEDPYT (SEQ ID NO: 9). the heavy chain variable domain contains the following CDRs: - VH-CDR1, defined by the sequence GFTFSSSY (SEQ ID NO: 5); - VH-CDR2, defined by the sequence IYAGTGGT (SEQ ID NO: 6); - VH-CDR3, defined by the sequence ARHGSYFDY (SEQ ID NO: 7); and - VH-CDR1, defined by the sequence GFTFSSSY (SEQ ID NO: 5); - VH-CDR2, defined by the sequence IYAGTGGT (SEQ ID NO: 6); - VH-CDR3, defined by the sequence ARHGSYFDY (SEQ ID NO: 7); and the light chain variable domain contains the following CDRs: - VL-CDR1, defined by the sequence QSVDYDGDSY (SEQ ID NO: 8); - VL-CDR2, defined by the sequence AAS; - VL-CDR3, defined by the sequence QQSNEDPYT (SEQ ID NO: 9). - VL-CDR1, defined by the sequence QSVDYDGDSY (SEQ ID NO: 8); - VL-CDR2, defined by the sequence AAS; - VL-CDR3, defined by the sequence QQSNEDPYT (SEQ ID NO: 9).
A composition comprising a first polyethylene homopolymer, formed by a high pressure, free-radical polymerization process, and a second polyethylene homopolymer, formed by a high pressure, free-radical polymerization process, such composition comprising the following properties: a) a melt index from 2.0 to 10 dg/min; b) a density from 0.922 to 0.935 g/cc; and wherein the second polyethylene homopolymer is present in an amount from 60 to 95 weight percent, based on the sum of the weight of the first polyethylene homopolymer and the second polyethylene homopolymer; and wherein the second polyethylene homopolymer has a density greater than, or equal to, 0.924 g/cc; wherein the first polyethylene homopolymer has a melt index less than 2.5 dg/min; and wherein the ratio of the density of the second polyethylene homopolymer to the density of the first polyethylene homopolymer is greater than, or equal to 1.007. a) a melt index from 2.0 to 10 dg/min; b) a density from 0.922 to 0.935 g/cc; and
A method of operating a vehicle in a vehicle traffic control system (2, 102, 302), comprising: receiving, by at least one detector module, a relative navigation grid projection from a set of grid generators (10, 110, 210, 310, 410); generating, via a control module, at least one navigation output based upon the received relative navigation grid projection; transmitting, via the control module, the at least one navigation output to a vehicle traffic control system (2, 102, 302); receiving a vehicle traffic control plan from the vehicle traffic control system (2, 102, 302); and controllably operating, via the control module, at least one manned vehicle based on the vehicle traffic control plan; wherein operating the vehicle includes operating the at least one manned vehicle to execute the vehicle traffic control plan to control at least one movement of the at least one manned vehicle. receiving, by at least one detector module, a relative navigation grid projection from a set of grid generators (10, 110, 210, 310, 410); generating, via a control module, at least one navigation output based upon the received relative navigation grid projection; transmitting, via the control module, the at least one navigation output to a vehicle traffic control system (2, 102, 302); receiving a vehicle traffic control plan from the vehicle traffic control system (2, 102, 302); and controllably operating, via the control module, at least one manned vehicle based on the vehicle traffic control plan;
An isocyanate composition comprising an isocyanate compound of general formula -1, -2 or -3: in the general formulae, A represents a residual group comprising a reactant structure of an active hydrogen-containing hydrophilic compound and an isocyanate group, a plurality of Y 1 each independently represents a single bond or a divalent C1-20 hydrocarbon group which may have at least one selected from the group consisting of an ester structure and an ether structure, the plurality of Y 1 may be identical to or different from each other, and R 1 represents a hydrogen atom or a monovalent C1-12 hydrocarbon group, wherein the active hydrogen-containing hydrophilic compound is at least one selected from the group consisting of anionic compounds, cationic compounds, and nonionic compounds, and A has an urea group, and a mole fraction of the urea group, relative to a total mol of an isocyanate group and the urea group, in the general formula -1, -2 or -3, is 0.01% by mol to 10% by mol. in the general formulae, A represents a residual group comprising a reactant structure of an active hydrogen-containing hydrophilic compound and an isocyanate group, a plurality of Y 1 each independently represents a single bond or a divalent C1-20 hydrocarbon group which may have at least one selected from the group consisting of an ester structure and an ether structure, the plurality of Y 1 may be identical to or different from each other, and R 1 represents a hydrogen atom or a monovalent C1-12 hydrocarbon group, wherein the active hydrogen-containing hydrophilic compound is at least one selected from the group consisting of anionic compounds, cationic compounds, and nonionic compounds, and A has an urea group, and a mole fraction of the urea group, relative to a total mol of an isocyanate group and the urea group, in the general formula -1, -2 or -3, is 0.01% by mol to 10% by mol.
A document forming apparatus comprising: a substrate feeder adapted to store and dispense substrates to a printing engine; a controller adapted to control the operation of the document forming apparatus, the controller including a media library database and a feeder capabilities and constraints database adapted to store information for the operation of the substrate feeder; a user interface adapted to control the operation of the document forming apparatus, the user interface including a stock library view, a stock settings dialog screen having an expert feeder controls section with a manual mode operator and an auto mode operator, and a control panel screen for manual mode operation, the control panel screen including means adapted to adjust a plurality of feeder parameters, indicators for manual and auto modes, and a save settings operator. a substrate feeder adapted to store and dispense substrates to a printing engine; a controller adapted to control the operation of the document forming apparatus, the controller including a media library database and a feeder capabilities and constraints database adapted to store information for the operation of the substrate feeder; a user interface adapted to control the operation of the document forming apparatus, the user interface including a stock library view, a stock settings dialog screen having an expert feeder controls section with a manual mode operator and an auto mode operator, and a control panel screen for manual mode operation, the control panel screen including means adapted to adjust a plurality of feeder parameters, indicators for manual and auto modes, and a save settings operator.
A thermoplastic copolymer comprising plural acrylated polyol monomeric units having different degrees of acrylation of hydroxyl groups, wherein the acrylated polyol monomeric units have an average degree of acrylation greater than 1 and less than the number of the hydroxyl groups of the polyol.
A compound which is an optically active butylphthalide-telmisartan hybrid as shown in formula I, or a pharmaceutically acceptable salt thereof: wherein, R represents a hydrogen atom H, linear or branched C1-C10 alkyl, (linear or branched C1-C10 alkylene) - Q, wherein Q represents hydroxyl or halogen; n represents 1 to 20; X represents an oxygen atom, a nitrogen atom or a sulfur atom; Y represents an oxygen atom, a nitrogen atom or a sulfur atom; and chiral center * is S or R configurated. wherein, R represents a hydrogen atom H, linear or branched C1-C10 alkyl, (linear or branched C1-C10 alkylene) - Q, wherein Q represents hydroxyl or halogen; n represents 1 to 20; X represents an oxygen atom, a nitrogen atom or a sulfur atom; Y represents an oxygen atom, a nitrogen atom or a sulfur atom; and chiral center * is S or R configurated.
A semiconductor device comprising: an integrated circuit, IC, layer having IC components; a base substrate layer; a buried oxide, BOX, layer having a BOX isolation breakdown voltage and separating the IC layer from the base substrate layer; at least a first isolation structure disposed proximate to the IC layer, the first isolation structure extending through the BOX layer to the base substrate layer, the first isolation structure having an isolation breakdown voltage, the first isolation structure isolating the IC components; and a protective stack having a stack breakdown voltage greater than the isolation breakdown voltage, the stack coupled to the base substrate layer in at least two different locations, the stack comprising: a first voltage protection component having a first anode coupled to one of the at least two different locations and a first cathode coupled to the first isolation structure and operable in use to receive a transient voltage, a difference between the transient voltage at a cathode of the stack and the substrate bias voltage being less than the isolation breakdown voltage; and a second voltage protection component having a second anode and a second cathode, the second anode coupled to the first cathode of the first voltage protection component, the second cathode of the second voltage protection component being at the cathode of the stack. an integrated circuit, IC, layer having IC components; a base substrate layer; a buried oxide, BOX, layer having a BOX isolation breakdown voltage and separating the IC layer from the base substrate layer; at least a first isolation structure disposed proximate to the IC layer, the first isolation structure extending through the BOX layer to the base substrate layer, the first isolation structure having an isolation breakdown voltage, the first isolation structure isolating the IC components; and a protective stack having a stack breakdown voltage greater than the isolation breakdown voltage, the stack coupled to the base substrate layer in at least two different locations, the stack comprising: a first voltage protection component having a first anode coupled to one of the at least two different locations and a first cathode coupled to the first isolation structure and operable in use to receive a transient voltage, a difference between the transient voltage at a cathode of the stack and the substrate bias voltage being less than the isolation breakdown voltage; and a second voltage protection component having a second anode and a second cathode, the second anode coupled to the first cathode of the first voltage protection component, the second cathode of the second voltage protection component being at the cathode of the stack.
A non-aqueous electrolyte secondary battery, wherein the non-aqueous electrolyte secondary battery is a flat stack type laminate battery in which the ratio value of battery area (projected area of the battery including the battery outer casing body) to rated capacity is 5 cm 2 /Ah or more and the rated capacity is 3 Ah or more, the positive electrode comprising: a positive electrode current collector; and a positive electrode active substance layer that is formed on a surface of the positive electrode current collector and has a positive electrode active substance containing a composite oxide comprising lithium and nickel, and a spinel type LiMn 2 O 4, wherein, when the average secondary particle diameter of the composite oxide comprising lithium and nickel as measured by laser diffraction is D50 [μm], the content ratio of the composite oxide comprising lithium and nickel in the positive electrode active substance layer is A [% by mass], the average secondary particle diameter of the spinel type LiMn 2 O 4 as measured by laser diffraction is D50 [μm], and the content ratio of the spinel type LiMn 2 O 4 in the positive electrode active substance layer is B [% by mass], the positive electrode satisfies the following Mathematical Formula 1 and Mathematical Formula 2: [Math. 1] 2.0 < D 50 A / D 50 B ≤ 15 0.07 ≤ B / A + B ≤ 0.15, and wherein D50 is in the range of from 5 to 20 μm. a positive electrode current collector; and a positive electrode active substance layer that is formed on a surface of the positive electrode current collector and has a positive electrode active substance containing a composite oxide comprising lithium and nickel, and a spinel type LiMn 2 O 4, wherein, when the average secondary particle diameter of the composite oxide comprising lithium and nickel as measured by laser diffraction is D50 [μm], the content ratio of the composite oxide comprising lithium and nickel in the positive electrode active substance layer is A [% by mass], the average secondary particle diameter of the spinel type LiMn 2 O 4 as measured by laser diffraction is D50 [μm], and the content ratio of the spinel type LiMn 2 O 4 in the positive electrode active substance layer is B [% by mass], the positive electrode satisfies the following Mathematical Formula 1 and Mathematical Formula 2: [Math. 1] 2.0 < D 50 A / D 50 B ≤ 15 0.07 ≤ B / A + B ≤ 0.15, and wherein D50 is in the range of from 5 to 20 μm.
A method of wireless communication, comprising: determining spectral positions of intermodulation distortion products for a multi-cluster transmission; mapping the spectral positions to corresponding spectral regions; and determining a maximum power reduction value of the multi-cluster transmission based at least in part on the corresponding spectral regions, and whether the multi-cluster transmission includes a balanced number of resource blocks based on a predetermined resource block ratio threshold, the maximum power reduction value further determined from: a first mapping of region indices when the multi-cluster transmission includes the balanced number of resource blocks; and a second mapping of region indices when the multi-cluster transmission includes an unbalanced number of resource blocks; and applying the determined maximum power reduction value at a user equipment. determining spectral positions of intermodulation distortion products for a multi-cluster transmission; mapping the spectral positions to corresponding spectral regions; and determining a maximum power reduction value of the multi-cluster transmission based at least in part on the corresponding spectral regions, and whether the multi-cluster transmission includes a balanced number of resource blocks based on a predetermined resource block ratio threshold, the maximum power reduction value further determined from: a first mapping of region indices when the multi-cluster transmission includes the balanced number of resource blocks; and a second mapping of region indices when the multi-cluster transmission includes an unbalanced number of resource blocks; and applying the determined maximum power reduction value at a user equipment. a first mapping of region indices when the multi-cluster transmission includes the balanced number of resource blocks; and a second mapping of region indices when the multi-cluster transmission includes an unbalanced number of resource blocks; and applying the determined maximum power reduction value at a user equipment.