mhurhangee/ep-ind-claims huggingface dataset:
A rotatable drum type washing machine comprising: a rotatable drum for housing laundry; a vessel for housing the rotatable drum; a motor for driving the rotatable drum; a water supply unit for supplying washing and/or rinsing water into the vessel; a foam detector (27, 32) for detecting an amount of foam in the vessel; and a controller for controlling at least one of the following steps a washing step, a rinsing step, and water removal step; characterized by: a circulator being a circulation pump for circulating the washing and/or rinsing water in the vessel into the rotatable drum; wherein the controller is configured to control a spraying of the washing and/or rinsing water by the circulator onto the laundry in the rotatable drum based on the amount of foam detected by the foam detector (27, 32); wherein the washing step has the following steps: a low-speed agitating step of rotating the rotatable drum at a speed at which the laundry does not stick to at least an inner surface of the rotatable drum, and a high-speed rotation step of rotating the rotatable drum at a speed at which the laundry sticks to the inner surface of the rotatable drum, and wherein the controller is configured to carry out at least one of the low-speed agitating step and the high-speed rotation step; wherein the controller is configured to carry out the high-speed rotation step of the washing step when the controller determines that the amount of foam generated in the vessel during the low-speed agitating step is smaller than a predetermined amount of foam by detecting the amount of foam generated in the vessel by means of the foam detector (27, 32). a rotatable drum for housing laundry; a vessel for housing the rotatable drum; a motor for driving the rotatable drum; a water supply unit for supplying washing and/or rinsing water into the vessel; a foam detector (27, 32) for detecting an amount of foam in the vessel; and a controller for controlling at least one of the following steps a washing step, a rinsing step, and water removal step; a circulator being a circulation pump for circulating the washing and/or rinsing water in the vessel into the rotatable drum; a low-speed agitating step of rotating the rotatable drum at a speed at which the laundry does not stick to at least an inner surface of the rotatable drum, and a high-speed rotation step of rotating the rotatable drum at a speed at which the laundry sticks to the inner surface of the rotatable drum, and wherein the controller is configured to carry out at least one of the low-speed agitating step and the high-speed rotation step;
Polyamide moulding compound having the following composition: (a) 20 to 99% by weight of at least one polyamide selected from the group consisting of PA 6; PA 4.6; PA 6.6; PA 6.6/6; PA 6.10; PA 6.12; PA 10.10; PA 11; PA 12; PA MXD.6; PA MXD.10; PA MACM.12; PA PACM.12; PA 6.T/6.I; PA 6.T/6.6; PA 6.T/6.12; PA 6.T/10.12; PA 4.T; PA 9.T; PA 10.T; PA 12.T; PA 10/6.T; PA 6.T/6.I/6.6; PA 11/10.T; PA 12/10.T; PA 6.10/10.T; PA 6.12/10T; PA 10.10/10T; PA 10.12/10.T; PA 12.12/10T; PA 11/10.T/12; PA 11/10.T/6; PA 12/10.T/6; PA 11/10.T/10.I; PA 11/10.T/10.6; PA 12/10.T/10.I; PA 12/10.T/10.6; PA 6.T/MPMD.T; (PAMPMDT = polyamide made of a mixture of hexamethylenediamine and 2-methyl pentamethylenediamine as diamine component and terephthalic acid as diacid component); polyamides, the diamine component of which is PACM, MACM, CHDA (CHDA = cyclohexyldiamine) or TMDC (TMDC = tetramethyldicykan) and/or mixtures or blends thereof, (b) 0.05 to 5% by weight of nigrosin, (c) 0.005 to 0.5% by weight of at least one nucleation agent selected from the group consisting of nucleation agents based on PA 2.2, kaolinite and steatite, (d) 0 to 79.945% by weight of at least one additive or supplement not acting as nucleation agent, wherein components (a) to (d) add up in total to 100% by weight of the polyamide moulding compound and carbon black is not a component of the polyamide moulding compound. (a) 20 to 99% by weight of at least one polyamide selected from the group consisting of PA 6; PA 4.6; PA 6.6; PA 6.6/6; PA 6.10; PA 6.12; PA 10.10; PA 11; PA 12; PA MXD.6; PA MXD.10; PA MACM.12; PA PACM.12; PA 6.T/6.I; PA 6.T/6.6; PA 6.T/6.12; PA 6.T/10.12; PA 4.T; PA 9.T; PA 10.T; PA 12.T; PA 10/6.T; PA 6.T/6.I/6.6; PA 11/10.T; PA 12/10.T; PA 6.10/10.T; PA 6.12/10T; PA 10.10/10T; PA 10.12/10.T; PA 12.12/10T; PA 11/10.T/12; PA 11/10.T/6; PA 12/10.T/6; PA 11/10.T/10.I; PA 11/10.T/10.6; PA 12/10.T/10.I; PA 12/10.T/10.6; PA 6.T/MPMD.T; (PAMPMDT = polyamide made of a mixture of hexamethylenediamine and 2-methyl pentamethylenediamine as diamine component and terephthalic acid as diacid component); polyamides, the diamine component of which is PACM, MACM, CHDA (CHDA = cyclohexyldiamine) or TMDC (TMDC = tetramethyldicykan) and/or mixtures or blends thereof, (b) 0.05 to 5% by weight of nigrosin, (c) 0.005 to 0.5% by weight of at least one nucleation agent selected from the group consisting of nucleation agents based on PA 2.2, kaolinite and steatite, (d) 0 to 79.945% by weight of at least one additive or supplement not acting as nucleation agent,
A solar collector module, comprising: a three-dimensional structural frame and a reflector coupled to the three-dimensional structural frame and shaped to concentrate solar radiation onto a receiver wherein the three-dimensional structural frame includes a set of primary structural shapes (601a-601g) spaced apart along a longitudinal axis of the structural frame, each primary structural shape including a set of frame members arranged in a polygonal shape, and wherein the three-dimensional structural frame also includes a set of axial frame members joining corners of adjacent primary structural shapes characterised in that the axial frame members form helical paths for the transmission of torque from one longitudinal end of the structural frame to the other. a three-dimensional structural frame and a reflector coupled to the three-dimensional structural frame and shaped to concentrate solar radiation onto a receiver wherein the three-dimensional structural frame includes a set of primary structural shapes (601a-601g) spaced apart along a longitudinal axis of the structural frame, each primary structural shape including a set of frame members arranged in a polygonal shape, and wherein the three-dimensional structural frame also includes a set of axial frame members joining corners of adjacent primary structural shapes characterised in that the axial frame members form helical paths for the transmission of torque from one longitudinal end of the structural frame to the other.
A turbulator fabrication process, comprising: providing a system configured for directing a first fusion energy and a second fusion energy; positioning a turbulator material on a substrate; and directing the first fusion energy and the second fusion energy toward the turbulator material and the substrate; the directing of the first fusion energy and the second fusion energy modifying the turbulator material forming one or more turbulators on the substrate; the turbulator extending from the substrate with a first root portion proximal to the substrate providing a concave transition between the substrate and a first side of a convex region of the turbulator; the turbulator extending from the substrate with a second root portion proximal to the substrate providing a concave transition between the substrate and a second side of the convex region of the turbulator; the first root portion and the second root portion being raised from the substrate to form at least a portion of the convex region extending from the substrate; wherein the process further comprises directing a third fusion energy toward the substrate, wherein the first concave portion is formed by the second fusion energy, the second concave portion is formed by the third fusion energy, and the convex region is formed by the first fusion energy. providing a system configured for directing a first fusion energy and a second fusion energy; positioning a turbulator material on a substrate; and directing the first fusion energy and the second fusion energy toward the turbulator material and the substrate; the directing of the first fusion energy and the second fusion energy modifying the turbulator material forming one or more turbulators on the substrate; the turbulator extending from the substrate with a first root portion proximal to the substrate providing a concave transition between the substrate and a first side of a convex region of the turbulator; the turbulator extending from the substrate with a second root portion proximal to the substrate providing a concave transition between the substrate and a second side of the convex region of the turbulator; the first root portion and the second root portion being raised from the substrate to form at least a portion of the convex region extending from the substrate; wherein the process further comprises directing a third fusion energy toward the substrate, wherein the first concave portion is formed by the second fusion energy, the second concave portion is formed by the third fusion energy, and the convex region is formed by the first fusion energy.
A method of changing a seat configuration of a vehicle body of a rail vehicle, the vehicle body being provided with at least one set of seats having seat cushions and backrests facing a first direction, the first direction being parallel or perpendicular to a longitudinal horizontal axis of the vehicle body, the method comprising: - disassembling the seats from the vehicle body; - reassembling the seats to the vehicle body to face a second direction perpendicular to the first direction; and characterised in that the method further comprises - mounting headrests to or dismounting headrests from the seats, such that the seats facing the longitudinal direction are provided with the headrests and the seats facing the transverse direction are without the headrests. - disassembling the seats from the vehicle body; - reassembling the seats to the vehicle body to face a second direction perpendicular to the first direction; and characterised in that the method further comprises - mounting headrests to or dismounting headrests from the seats, such that the seats facing the longitudinal direction are provided with the headrests and the seats facing the transverse direction are without the headrests.
A device for conveying rod-shaped articles for the tobacco processing industry, in particular filter rods, having a longitudinal conveying device for conveying the rod-shaped articles in the longitudinal axial direction behind one another in a queue, having a transverse axial conveying device, in particular a fluted drum, for conveying the rod-shaped articles in the transverse axial direction, wherein the rod-shaped articles can be or are transferred from the longitudinal conveying device to the transverse axial conveying device on the output side of the longitudinal conveying device in a transfer region, characterized in that an air curtain production device which can be or is acted upon with an air jet is provided in the transfer region of the rod-shaped articles between the longitudinal conveying device and the transverse axial conveying device, wherein the flow direction of the air curtain which can be or is produced by the air curtain production device is directed in the opposite direction to the longitudinal axial conveying direction of the rod-shaped articles in or on the longitudinal conveying device.
A floor treatment system comprising a mobile floor treatment device and a docking station for the latter, wherein a consumable component can be supplied to the floor treatment device from the docking station and/or a signal can be transmitted between the docking station and the floor treatment device, wherein the floor treatment device and the docking station each have at least one connection element (22, 28, 36, 126, 142, 150) and corresponding connection elements (22, 28, 36, 126, 142, 150) of the docking station and the floor treatment device couple with one another in a docking position of the latter, wherein the floor treatment system comprises at least one connection unit at the docking station and/or at the floor treatment device, which connection unit has the at least one connection element (22, 28, 36) thereof and is held in a position-variable manner at the docking station or at the floor treatment device, wherein the docking station and the floor treatment device each comprise a connection unit (50, 154) having at least one connection element (22, 28, 36, 126, 142, 150), wherein the connection units (50, 154) are joinable to or into one another in the docking position of the floor treatment device, characterised in that the connection elements (22, 28, 36, 126, 142, 150) of the docking station and the floor treatment device comprise connection elements (22, 126) at a supply line of the docking station and at a filling line of the floor treatment device, which connection elements (22, 126) are connected to one another in a sealing manner in the docking position, wherein the floor treatment device has a storage container for a fluid, which is fillable in the docking position via the supply line and the filling line.
A surgical device, comprising: a jaw assembly defining a first longitudinal axis (X-X) and comprising a first jaw and a second jaw moveable relative to the first jaw; an elongated body defining a second longitudinal axis and coupled to a proximal end of the jaw assembly, wherein the jaw assembly is configured to articulate about an articulation axis transverse to the second longitudinal axis relative to the elongated body; a handle assembly coupled to a proximal end of the elongated body and comprising at least one motor (164,166) mechanically coupled to the jaw assembly; and a control assembly configured to control the at least one motor, the control assembly comprising a first control button and a second control button, wherein the control assembly is configured in such a way that actuation of the first control button moves the second jaw in approximation relative to the first jaw and actuation of the second control button moves the second jaw away from the first jaw, characterised in that actuation of the first and second control buttons moves the jaw assembly to a centered position in which the first and second longitudinal axes are substantially aligned. a jaw assembly defining a first longitudinal axis (X-X) and comprising a first jaw and a second jaw moveable relative to the first jaw; an elongated body defining a second longitudinal axis and coupled to a proximal end of the jaw assembly, wherein the jaw assembly is configured to articulate about an articulation axis transverse to the second longitudinal axis relative to the elongated body; a handle assembly coupled to a proximal end of the elongated body and comprising at least one motor (164,166) mechanically coupled to the jaw assembly; and a control assembly configured to control the at least one motor, the control assembly comprising a first control button and a second control button, wherein the control assembly is configured in such a way that actuation of the first control button moves the second jaw in approximation relative to the first jaw and actuation of the second control button moves the second jaw away from the first jaw, characterised in that actuation of the first and second control buttons moves the jaw assembly to a centered position in which the first and second longitudinal axes are substantially aligned.
An electrolyte for a lithium air battery, the electrolyte comprising a compound represented by Formula 1 or Formula 2: wherein, in Formula 1, R 1 to R 6 are each independently a methyl group, an ethyl group, a propyl group, an isopropyl group, an n-butyl group, a tert-butyl group, a sec-butyl group, an isobutyl group, an n-pentyl group, or an isopentyl group; R 7 is a methyl group, an ethyl group, an n-propyl group, an n-butyl group, an n-pentyl group, an n-hexyl group, or an n-octyl group; R 8, R 9, and R 10 are each independently a hydrogen or a methyl group, a total number of carbons of R 1, R 2, and R 8 is 6 to 30, a total number of carbons of R 3, R 4, and R 9 is 6 to 30, a total number of carbons of R 5, R 6, and R 10 is 3 to 20; and A - is a monovalent anion; wherein, in Formula 2, R 1 to R 6 are each independently a C2-C10 alkyl group, R 7 is a C1-C10 alkyl group, a total number of carbons of R 1 and R 2 is 6 to 20, a total number of carbons of R 3 and R 4 is 6 to 20, a total number of carbons of R 5 and R 6 is 3 to 20 or 6 to 20, and A - is at least one selected from BF 4 -, PF 6 -, AsF 6 -, SbF 6 -, AlCl 4 -, HSO 4 -, ClO 4 -, CH 3 SO 3 -, CF 3 CO 2 -, (CF 3 SO 2) 2 N -, (FSO 2) 2 N -, Cl -, Br -, I -, CF 3 SO 3 -, (C 2 F 5 SO 2) 2 N -, (C 2 F 5 SO 2)(CF 3 SO 2)N -, NO 3 -, Al 2 Cl 7 -, (CF 3 SO 2) 3 C -, (CF 3) 2 PF 4 -, (CF 3) 3 PF 3 -, (CF 3) 4 PF 2 -, (CF 3) 5 PF -, (CF 3) 6 P -, SF 5 CF 2 SO 3 -, SF 5 CHFCF 2 SO 3 -, CF 3 CF 2 (CF 3) 2 CO -, (CF 3 SO 2) 2 CH -, (SF 5) 3 C -, and (O(CF 3) 2 C 2 (CF 3) 2 O) 2 PO -. R 1 to R 6 are each independently a methyl group, an ethyl group, a propyl group, an isopropyl group, an n-butyl group, a tert-butyl group, a sec-butyl group, an isobutyl group, an n-pentyl group, or an isopentyl group; R 7 is a methyl group, an ethyl group, an n-propyl group, an n-butyl group, an n-pentyl group, an n-hexyl group, or an n-octyl group; R 8, R 9, and R 10 are each independently a hydrogen or a methyl group, a total number of carbons of R 1, R 2, and R 8 is 6 to 30, a total number of carbons of R 3, R 4, and R 9 is 6 to 30, a total number of carbons of R 5, R 6, and R 10 is 3 to 20; and A - is a monovalent anion; R 1 to R 6 are each independently a C2-C10 alkyl group, R 7 is a C1-C10 alkyl group, a total number of carbons of R 1 and R 2 is 6 to 20, a total number of carbons of R 3 and R 4 is 6 to 20, a total number of carbons of R 5 and R 6 is 3 to 20 or 6 to 20, and A - is at least one selected from BF 4 -, PF 6 -, AsF 6 -, SbF 6 -, AlCl 4 -, HSO 4 -, ClO 4 -, CH 3 SO 3 -, CF 3 CO 2 -, (CF 3 SO 2) 2 N -, (FSO 2) 2 N -, Cl -, Br -, I -, CF 3 SO 3 -, (C 2 F 5 SO 2) 2 N -, (C 2 F 5 SO 2)(CF 3 SO 2)N -, NO 3 -, Al 2 Cl 7 -, (CF 3 SO 2) 3 C -, (CF 3) 2 PF 4 -, (CF 3) 3 PF 3 -, (CF 3) 4 PF 2 -, (CF 3) 5 PF -, (CF 3) 6 P -, SF 5 CF 2 SO 3 -, SF 5 CHFCF 2 SO 3 -, CF 3 CF 2 (CF 3) 2 CO -, (CF 3 SO 2) 2 CH -, (SF 5) 3 C -, and (O(CF 3) 2 C 2 (CF 3) 2 O) 2 PO -.
A support unit for supporting a heating conductor of an exhaust gas heater on a carrier structure, comprising a supporting sleeve extending in the direction of a longitudinal axis and surrounding the longitudinal axis, a supporting pin having a sleeve connecting area extending in the supporting sleeve and an exhaust gas heater connecting area projecting beyond the supporting sleeve, wherein the supporting pin, at least in the area of its sleeve connecting area, and/or the supporting sleeve, on an inner surface surrounding the sleeve connecting area of the supporting pin, is coated with insulating material, and wherein the sleeve connecting area is held in the supporting sleeve by a force fit, characterized in that the force fit is provided by thermal treatment of the supporting sleeve and/or of the supporting pin before insertion of the sleeve connecting area into the supporting sleeve, wherein the supporting sleeve is heated and/or the supporting pin is cooled before insertion of the sleeve connecting area into the supporting sleeve.
A method comprising: performing polar coding on a bit sequence to obtain a polar-coded bit sequence; obtaining, based on a puncturing proportion P' and a prestored sequence S', a constructed sequence S that has a length equal to a target code length M, wherein the prestored sequence S' comprises N' channel indexes sorted by channel reliability, wherein N'>M, and wherein sorting of channel indexes in the constructed sequence S is the same as sorting of channel indexes in the prestored sequence S'; and mapping the polar coded bit sequence to channels corresponding to the channel indexes in the constructed sequence S, wherein, when N' and M satisfy: N'×3/4<M<β×(N'×3/4), where β>1, channels corresponding to channel indexes that are less than N'/4 in the prestored sequence S' are frozen. performing polar coding on a bit sequence to obtain a polar-coded bit sequence; obtaining, based on a puncturing proportion P' and a prestored sequence S', a constructed sequence S that has a length equal to a target code length M, wherein the prestored sequence S' comprises N' channel indexes sorted by channel reliability, wherein N'>M, and wherein sorting of channel indexes in the constructed sequence S is the same as sorting of channel indexes in the prestored sequence S'; and mapping the polar coded bit sequence to channels corresponding to the channel indexes in the constructed sequence S, wherein, when N' and M satisfy: N'×3/4<M<β×(N'×3/4), where β>1, channels corresponding to channel indexes that are less than N'/4 in the prestored sequence S' are frozen.
A molding core system comprising a plurality of co-operable components manipulable between a first molding position at which the core system is fully deployed and a second drawing position in which the core system is configured to axially retract and radially contract into the second drawing position, the outer shape of said core system being substantially complementary to the inner shape of the molded hollow article, said core system comprises an axially displaceable core pin and at least one of at least radially displaceable core segments extending around the core pin, wherein the core segments comprise a first group of dynamic segment members and a second group of dynamic segment members, all substantially circumferentially extending around the core pin, wherein the outer surface of the core system, substantially conforming to the inner surface of the hollow article cavity and the first group of segment members are configured for radially translating in a direction towards the central axis of the core system, while the second group of dynamic segment members is configured for radially translating in a direction towards the central axis of the core system, characterised in the the second group of dynamic segment members is further configured to axially translate in a direction opposite the direction of the retraction of the core pin, optionally wherein the radial translation towards the axis and the axial translation of the second group is performed substantially concurrently in a combined motion where the first group moves faster than the second group.