mhurhangee/ep-ind-claims huggingface dataset:
An oral care refill head comprising: a sleeve portion extending from a proximal end to a distal end, the sleeve portion comprising an inner surface that defines an internal cavity that extends along a sleeve axis (B-B) from an open bottom end at the proximal end of the sleeve portion to a closed top end, the internal cavity configured to receive an attachment portion of a stem of an oral care implement handle; and a head portion at the distal end of the sleeve portion, the head portion comprising a front surface, a peripheral side surface, and an elastomeric prophy cup; wherein the elastomeric prophy cup comprises an elastomeric cup portion and an elastomeric base portion, the elastomeric base portion comprising an outer surface that forms at least a first portion of the peripheral side surface of the head portion, the elastomeric cup portion of the prophy cup extending along a prophy cup axis (C-C); and characterized in that the first portion of the peripheral side surface of the head portion circumscribes the head portion. a sleeve portion extending from a proximal end to a distal end, the sleeve portion comprising an inner surface that defines an internal cavity that extends along a sleeve axis (B-B) from an open bottom end at the proximal end of the sleeve portion to a closed top end, the internal cavity configured to receive an attachment portion of a stem of an oral care implement handle; and a head portion at the distal end of the sleeve portion, the head portion comprising a front surface, a peripheral side surface, and an elastomeric prophy cup; wherein the elastomeric prophy cup comprises an elastomeric cup portion and an elastomeric base portion, the elastomeric base portion comprising an outer surface that forms at least a first portion of the peripheral side surface of the head portion, the elastomeric cup portion of the prophy cup extending along a prophy cup axis (C-C); and characterized in that the first portion of the peripheral side surface of the head portion circumscribes the head portion.
A boron-free liquid detergent composition, comprising a) a linear alkyl benzene sulfonate, b) a subtilisin, c) a subtilisin inhibitor which is a peptide aldehyde or a hydrosulfite adduct thereof, d) a salt of a monovalent cation and a monovalent organic anion of 1-6 carbons, and e) at least 10% water; which has a total content of linear alkyl benzene sulfonate and branched alkyl benzene sulfonate (LAS and BABS) and alkyl sulfate which is larger than the total content of alkyl ethoxy ether sulfate and methyl ester sulfonate. a) a linear alkyl benzene sulfonate, b) a subtilisin, c) a subtilisin inhibitor which is a peptide aldehyde or a hydrosulfite adduct thereof, d) a salt of a monovalent cation and a monovalent organic anion of 1-6 carbons, and e) at least 10% water;
An ultra-thick steel material, comprising: by weight%, 0.04 to 0.1% of C, 1.2 to 2.0% of Mn, 0.2 to 0.9% of Ni, 0.005 to 0.04% of Nb, 0.005 to 0.03% of Ti, 0.1 to 0.4% of Cu, 100ppm or less of P, 40ppm or less of S, and a balance of Fe and inevitable impurities, wherein the ultra-thick steel material comprises polygonal ferrite of 50 area% or higher, including 100 area%, and bainite of 50 area% or less, including 0 area %, as a microstructure in a region up to a t/10 position in a subsurface area. wherein the ultra-thick steel material comprises bainite of 50 area% or less, including 0 area%, in a region from a t/10 position to a t/5 position in a subsurface area, and a complex structure of acicular ferrite and bainite of 90 area% or higher, including 100 area%, and polygonal ferrite of 10 area% or less, including 0 area%, as a microstructure in a region from a t/5 position to a t/2 position in a subsurface area, where t is a thickness of the steel material, wherein a nil-ductility transition temperature, an NDT temperature, based on a naval research laboratory drop-weight test, a NRL-DWT, prescribed in ASTM 208-06, is -60°C or less in a sample obtained from a surface, wherein an impact transition temperature is -40°C or less in a sample obtained from a t/4 position in a subsurface area, and yield strength is 390MPa or higher, wherein a sheet thickness is 50 to 100mm. by weight%, 0.04 to 0.1% of C, 1.2 to 2.0% of Mn, 0.2 to 0.9% of Ni, 0.005 to 0.04% of Nb, 0.005 to 0.03% of Ti, 0.1 to 0.4% of Cu, 100ppm or less of P, 40ppm or less of S, and a balance of Fe and inevitable impurities, wherein the ultra-thick steel material comprises polygonal ferrite of 50 area% or higher, including 100 area%, and bainite of 50 area% or less, including 0 area %, as a microstructure in a region up to a t/10 position in a subsurface area. wherein the ultra-thick steel material comprises bainite of 50 area% or less, including 0 area%, in a region from a t/10 position to a t/5 position in a subsurface area, and a complex structure of acicular ferrite and bainite of 90 area% or higher, including 100 area%, and polygonal ferrite of 10 area% or less, including 0 area%, as a microstructure in a region from a t/5 position to a t/2 position in a subsurface area, where t is a thickness of the steel material, wherein a nil-ductility transition temperature, an NDT temperature, based on a naval research laboratory drop-weight test, a NRL-DWT, prescribed in ASTM 208-06, is -60°C or less in a sample obtained from a surface, wherein an impact transition temperature is -40°C or less in a sample obtained from a t/4 position in a subsurface area, and yield strength is 390MPa or higher, wherein a sheet thickness is 50 to 100mm.
An apparatus for communicating a set of data between a first user equipment and a second user equipment in a network, the network comprising one or more network nodes, the apparatus comprising means for: dividing, by a first network node, a total number of transmission attempts for a same set of data of the communication between one or more first data transmission attempts and one or more second data transmission attempts, wherein the one or more first data transmission attempts are configured to be performed from the first user equipment toward the first network node, and wherein the one or more second data transmission attempts are configured to be performed from the first network node or from a second network node toward the second user equipment; and coordinating, by the first network node, performance of the one or more first and second data transmission attempts for the communication based on the division to cause communication of the set of data from the first user equipment to the second user equipment. dividing, by a first network node, a total number of transmission attempts for a same set of data of the communication between one or more first data transmission attempts and one or more second data transmission attempts, wherein the one or more first data transmission attempts are configured to be performed from the first user equipment toward the first network node, and wherein the one or more second data transmission attempts are configured to be performed from the first network node or from a second network node toward the second user equipment; and coordinating, by the first network node, performance of the one or more first and second data transmission attempts for the communication based on the division to cause communication of the set of data from the first user equipment to the second user equipment.
A near field communications, NFC, controller, comprising: - a radio frequency, RF, interface; - a non-volatile memory; and - a processor configured to: - read a number of low power iterations N from the memory; - perform a low power poll; Characterized by the processor further performing the following steps: - if a tag is not detected and N has not been exceeded, perform another low power poll; - if a tag is not detected and N has been exceeded, perform a normal power poll; - if a tag is detected, initiate activation of the detected tag. - a radio frequency, RF, interface; - a non-volatile memory; and - a processor configured to: - read a number of low power iterations N from the memory; - perform a low power poll; Characterized by the processor further performing the following steps: - if a tag is not detected and N has not been exceeded, perform another low power poll; - if a tag is not detected and N has been exceeded, perform a normal power poll; - if a tag is detected, initiate activation of the detected tag. - read a number of low power iterations N from the memory; - perform a low power poll; Characterized by the processor further performing the following steps: - if a tag is not detected and N has not been exceeded, perform another low power poll; - if a tag is not detected and N has been exceeded, perform a normal power poll; - if a tag is detected, initiate activation of the detected tag. - if a tag is not detected and N has not been exceeded, perform another low power poll; - if a tag is not detected and N has been exceeded, perform a normal power poll; - if a tag is detected, initiate activation of the detected tag.
A display device comprising: a flexible substrate including an active area (A/A), and a non-active area (N/A) around the active area (A/A), wherein a lower end of the non-active area (N/A) is divided into a first area, a bending area (B/A), and a second area, wherein the first area is between the bending area (B/A) and the active area (A/A), wherein the second area is between the bending area (B/A) and a circuit mount area, wherein the bending area (B/A) is configured to be bent flexibly, wherein by bending of the bending region (B/A), the first area is positioned on a front surface in top view of the display device while the second area is positioned on a rear surface in top view of the display device; a plurality of pixels disposed to display an image in the active area (A/A), each of the plurality of pixels including an organic light emitting diode, OLED, configured to receive a signal from at least one signal line (141a, 141b, 141c) and power from at least one power line (145a, 146a, 147a) to display the image; the at least one signal line (141a, 141b, 141c) and the at least one power line (145a, 146a, 147a) disposed on the flexible substrate, the at least one signal line (141a, 141b, 141c) and the at least one power line (145a, 146a, 147a) being disposed on a same layer in the bending area (B/A); a planarization layer covering the at least one signal line (141a, 141b, 141c) and the at least one power line (145a, 146a, 147a) in the bending area (B/A). a flexible substrate including an active area (A/A), and a non-active area (N/A) around the active area (A/A), wherein a lower end of the non-active area (N/A) is divided into a first area, a bending area (B/A), and a second area, wherein the first area is between the bending area (B/A) and the active area (A/A), wherein the second area is between the bending area (B/A) and a circuit mount area, wherein the bending area (B/A) is configured to be bent flexibly, wherein by bending of the bending region (B/A), the first area is positioned on a front surface in top view of the display device while the second area is positioned on a rear surface in top view of the display device; a plurality of pixels disposed to display an image in the active area (A/A), each of the plurality of pixels including an organic light emitting diode, OLED, configured to receive a signal from at least one signal line (141a, 141b, 141c) and power from at least one power line (145a, 146a, 147a) to display the image; the at least one signal line (141a, 141b, 141c) and the at least one power line (145a, 146a, 147a) disposed on the flexible substrate, the at least one signal line (141a, 141b, 141c) and the at least one power line (145a, 146a, 147a) being disposed on a same layer in the bending area (B/A); a planarization layer covering the at least one signal line (141a, 141b, 141c) and the at least one power line (145a, 146a, 147a) in the bending area (B/A).
A process for preparing a dispersion of starch particles in an aqueous liquid, the process comprising: introducing a feed starch having an average particle size diameter of 15 micrometers to 40 micrometers and the aqueous liquid into a rotor stator mixer; maintaining the feed starch and the aqueous liquid in the rotor stator mixer at a temperature ranging from a gelation temperature to less than a solubilization temperature; and shearing the feed starch into starch particles in the absence of a cross-linker with the rotor stator mixer to form the dispersion of starch particles in the aqueous liquid where shearing the feed starch into starch particles produces starch particles having an average particle size diameter of no larger than 2 micrometers. introducing a feed starch having an average particle size diameter of 15 micrometers to 40 micrometers and the aqueous liquid into a rotor stator mixer; maintaining the feed starch and the aqueous liquid in the rotor stator mixer at a temperature ranging from a gelation temperature to less than a solubilization temperature; and shearing the feed starch into starch particles in the absence of a cross-linker with the rotor stator mixer to form the dispersion of starch particles in the aqueous liquid where shearing the feed starch into starch particles produces starch particles having an average particle size diameter of no larger than 2 micrometers.
An autonomous cleaning robot, comprising: a chassis; at least one motorized drive wheel (120a, 120b) mounted to the chassis and arranged to propel the robot across a surface; a pair of cleaning rollers (310a, 310b) mounted to the chassis and having outer surfaces exposed on an underside of the chassis and to each other (310a, 310b), the cleaning rollers (310a, 310b) drivable to counter-rotate while the robot is propelled, thereby cooperating to direct raised debris upward into the robot between the rollers (310a, 310b); and a side brush mounted to the chassis to rotate beneath the chassis adjacent a lateral side of the chassis about an upwardly extending side brush axis (Zc); characterized in that the outer surface of a first of the cleaning rollers of the pair extends laterally beyond the outer surface of a second of the cleaning rollers of the pair and laterally beyond the side brush axis (Zc), such that the first cleaning roller defines a cleaning width (WR, WRI) spanning the side brush axis (Zc). a chassis; at least one motorized drive wheel (120a, 120b) mounted to the chassis and arranged to propel the robot across a surface; a pair of cleaning rollers (310a, 310b) mounted to the chassis and having outer surfaces exposed on an underside of the chassis and to each other (310a, 310b), the cleaning rollers (310a, 310b) drivable to counter-rotate while the robot is propelled, thereby cooperating to direct raised debris upward into the robot between the rollers (310a, 310b); and a side brush mounted to the chassis to rotate beneath the chassis adjacent a lateral side of the chassis about an upwardly extending side brush axis (Zc); characterized in that the outer surface of a first of the cleaning rollers of the pair extends laterally beyond the outer surface of a second of the cleaning rollers of the pair and laterally beyond the side brush axis (Zc), such that the first cleaning roller defines a cleaning width (WR, WRI) spanning the side brush axis (Zc).
A cooling circuit including an internal combustion engine, comprising: a pressure-feeding unit for feeding coolant under pressure, the coolant cooling the internal combustion engine; a valve unit having a plurality of heat exchangers connected in parallel thereto and changing a coolant flowing state in the plurality of heat exchangers; an exhaust heat recovery system for recovering heat from exhaust air of the internal combustion engine by the coolant; a first circulation circuit including the pressure-feeding unit, the valve unit and the exhaust heat recovery system; a second circulation circuit including the pressure-feeding unit and the exhaust heat recovery system; and a connection passage forming the first circulation circuit and the second circulation circuit; the cooling circuit being characterized in that the second circulation circuit does not include the valve unit, and a flow rate of the coolant flowing through the exhaust heat recovery system via the second circulation circuit being made smaller than that of the coolant flowing through the exhaust heat recovery system via the first circulation circuit by an orifice arranged in the second circulation circuit or the connection passage of the second circulation circuit in a part not common to the first circulation circuit. a pressure-feeding unit for feeding coolant under pressure, the coolant cooling the internal combustion engine; a valve unit having a plurality of heat exchangers connected in parallel thereto and changing a coolant flowing state in the plurality of heat exchangers; an exhaust heat recovery system for recovering heat from exhaust air of the internal combustion engine by the coolant; a first circulation circuit including the pressure-feeding unit, the valve unit and the exhaust heat recovery system; a second circulation circuit including the pressure-feeding unit and the exhaust heat recovery system; and a connection passage forming the first circulation circuit and the second circulation circuit; the cooling circuit being characterized in that the second circulation circuit does not include the valve unit, and a flow rate of the coolant flowing through the exhaust heat recovery system via the second circulation circuit being made smaller than that of the coolant flowing through the exhaust heat recovery system via the first circulation circuit by an orifice arranged in the second circulation circuit or the connection passage of the second circulation circuit in a part not common to the first circulation circuit.
A fine fiber comprising: a fiber-forming polyamide; and a fluorochemical urethane additive incorporated within the fine fiber; wherein the fine fiber has an average fiber diameter of no greater than 10 μm; and wherein the fluorochemical urethane additive includes one or more perfluorinated alkyl groups and/or perfluorinated heteroalkyl groups, and each alkyl or heteroalkyl group is bonded to a sulfonamido (-SO 2 NR 2 -) group, a carboxamido (-C NR 3 -) group, a carboxyl group (-C O-), or a sulfonyl group (-SO 2 -), wherein R 2 and R 3 are independently a hydrogen or an alkyl wherein the fluorochemical urethane additive does not include acrylate or methacrylate functional groups. a fiber-forming polyamide; and a fluorochemical urethane additive incorporated within the fine fiber; wherein the fine fiber has an average fiber diameter of no greater than 10 μm; and wherein the fluorochemical urethane additive includes one or more perfluorinated alkyl groups and/or perfluorinated heteroalkyl groups, and each alkyl or heteroalkyl group is bonded to a sulfonamido (-SO 2 NR 2 -) group, a carboxamido (-C NR 3 -) group, a carboxyl group (-C O-), or a sulfonyl group (-SO 2 -), wherein R 2 and R 3 are independently a hydrogen or an alkyl wherein the fluorochemical urethane additive does not include acrylate or methacrylate functional groups.
A composition comprising: - vitamin B9 or folic acid or folacin, and - myo-inositol, and - alpha lipoic acid, for use in the treatment of infertility. - vitamin B9 or folic acid or folacin, and - myo-inositol, and - alpha lipoic acid,
Shuttle (6;7) which can be moved back and forth on a fixed travel path for transporting upright plate-shaped elements, preferably glass plates, and for sorting the plate-shaped elements into vertical storage devices (3a;3b;3c) arranged along the travel path and/or for removing the plate-shaped elements from the storage devices (3a;3b;3c), characterized in that the shuttle (6;7) is at least two-storied and has at least two floors (12;13) arranged one above the other for at least two-storied reception of the plate-shaped elements, preferably the glass plates.
Extruded or molded profile comprising a polyolefin composition consisting of A) a copolymer of 1-butene with ethylene having ethylene copolymerized content up to 18 % by mol and having the following properties: a) distribution of molecular weight Mw/Mn equal to or less than 3; b) hardness shore A (measured according to ISO 868) of equal to or less than 90; c) no melting point TmII detectable at the DSC; d) melting enthalpy (ΔHf), measured by DSC after 10 days of aging at room temperature, of from 4 to 30 J/g; and optionally B) up to 15% by weight of a propylene copolymer or a composition of copolymers of propylene having the following features i) a melting point from about 126°C to 200°C; and iii) isotactic index equal to or greater than 80%. A) a copolymer of 1-butene with ethylene having ethylene copolymerized content up to 18 % by mol and having the following properties: a) distribution of molecular weight Mw/Mn equal to or less than 3; b) hardness shore A (measured according to ISO 868) of equal to or less than 90; c) no melting point TmII detectable at the DSC; d) melting enthalpy (ΔHf), measured by DSC after 10 days of aging at room temperature, of from 4 to 30 J/g; and optionally a) distribution of molecular weight Mw/Mn equal to or less than 3; b) hardness shore A (measured according to ISO 868) of equal to or less than 90; c) no melting point TmII detectable at the DSC; d) melting enthalpy (ΔHf), measured by DSC after 10 days of aging at room temperature, of from 4 to 30 J/g; and optionally B) up to 15% by weight of a propylene copolymer or a composition of copolymers of propylene having the following features i) a melting point from about 126°C to 200°C; and iii) isotactic index equal to or greater than 80%. i) a melting point from about 126°C to 200°C; and iii) isotactic index equal to or greater than 80%.