mhurhangee/ep-ind-claims huggingface dataset:
A drive unit for a drive train of an electrically driven motor vehicle, in particular a hybrid motor vehicle, having a first electric machine and a second electric machine and an output shaft, wherein a rotor of the second electric machine is connected to the output shaft for conjoint rotation and wherein the drive unit also has a disconnect clutch, with which a rotor of the first electric machine can be connected to the output shaft for torque transmission, wherein the rotor (111, 121) of one of the electric machines (110, 120) is supported at least indirectly radially on the rotor (121, 111) of the other electric machine (120, 110) by means of at least one rotary bearing, wherein an output element of the disconnect clutch is connected for conjoint rotation to the rotor of the second electric machine, wherein the rotor of the second electric machine is supported by this output element of the disconnect clutch on the first shaft which is connected for conjoint rotation to the first electric machine, and wherein between the two electric machines (110, 120) there is only one inner housing wall in the axial direction, on which only one further rotary bearing for one of the two rotors (111, 121) of the electric machines (110, 120) is arranged, characterised in that the disconnect clutch is arranged in the axial direction between the inner housing wall and the second electric machine.
Method for producing a stator winding of an electrical machine for a motor vehicle, which stator winding is embodied as an ordered stator winding with s phases and is embodied in an end winding in at least two axially spaced-apart levels (22, 24), wherein initially an inner winding and then an outer winding, which is axially spaced apart from the inner winding, around the inner winding are produced, and wherein the stator winding is produced as a wave winding by means of a rotating winding bar, wherein halves of the inner and outer winding are respectively produced one after the other using the following method steps: a) rotating the winding bar through 180° and at the same time shifting the wire feed by s slots to the right; b) inserting the wires into the slots; c) rotating the winding bar through 180° and at the same time shifting the wire feed by s slots to the right; d) then inserting the wires into the slots; e) repeating these steps until the end of the winding bar is reached; f) rotation of the winding bar is stopped when the end of the winding bar is reached; g) then advancing by s slots and inserting the last s wires once again on the same side of the winding bar; h) repeatedly executing method steps a) to f) for the next half of the inner and outer winding in each case, wherein the other end of the winding bar is worked towards. a) rotating the winding bar through 180° and at the same time shifting the wire feed by s slots to the right; b) inserting the wires into the slots; c) rotating the winding bar through 180° and at the same time shifting the wire feed by s slots to the right; d) then inserting the wires into the slots; e) repeating these steps until the end of the winding bar is reached; f) rotation of the winding bar is stopped when the end of the winding bar is reached; g) then advancing by s slots and inserting the last s wires once again on the same side of the winding bar; h) repeatedly executing method steps a) to f) for the next half of the inner and outer winding in each case, wherein the other end of the winding bar is worked towards.
An acoustic device that is adapted to be worn on the body of a user, comprising: an array of acoustic transducers comprising at least three acoustic radiating surfaces; and a controller that is adapted to provide array control signals that independently control the relative phases and amplitudes of each of the transducers, wherein: the array of acoustic transducers comprises four monopole transducers that are generally arranged along an axis, a first monopole transducer is closest to an expected location of an of the user, a second monopole transducer is proximate the first monopole transducer and farther away from the ear than the first monopole transducer, a third monopole transducer is proximate the second monopole transducer and farther away from the ear than the second monopole transducer, and a fourth monopole transducer is proximate the third monopole transducer and farther away from the ear than the third monopole transducer, characterized in that over at least most of an operating frequency range of the acoustic device, the control signals cause the second and third monopole transducers to each have an amplitude that is greater than that of the first and fourth monopole transducers. an array of acoustic transducers comprising at least three acoustic radiating surfaces; and a controller that is adapted to provide array control signals that independently control the relative phases and amplitudes of each of the transducers, wherein: the array of acoustic transducers comprises four monopole transducers that are generally arranged along an axis, a first monopole transducer is closest to an expected location of an of the user, a second monopole transducer is proximate the first monopole transducer and farther away from the ear than the first monopole transducer, a third monopole transducer is proximate the second monopole transducer and farther away from the ear than the second monopole transducer, and a fourth monopole transducer is proximate the third monopole transducer and farther away from the ear than the third monopole transducer, characterized in that over at least most of an operating frequency range of the acoustic device, the control signals cause the second and third monopole transducers to each have an amplitude that is greater than that of the first and fourth monopole transducers.
A method for operating a large diesel engine, which is designed as a dual-fuel large diesel engine, which can be operated in a liquid mode in which a liquid fuel is introduced into a cylinder for combustion, and which can be further operated in a gas mode in which a gas is introduced into the cylinder as fuel, wherein the large diesel engine comprises at least one cylinder in which a piston is arranged movable back and forth along a cylinder wall in an axial direction between a lower reversal point and an upper reversal point, wherein the piston has an upper side for delimiting a combustion chamber in the cylinder, wherein at least one gas inlet opening is provided in the cylinder wall, through which opening the gas is introduced into the cylinder as fuel in gas mode, wherein in gas mode, the introduction of the gas is terminated at an inlet distance, characterized in that the inlet distance indicates the distance of the upper side of the piston from the gas inlet opening in the axial direction, and wherein the inlet distance is at least 14% of the stroke, which is defined by the difference in position of the upper side of the piston at the upper reversal point and at the lower reversal point.
A collection system comprising: a cavity that receives chips that are released from a submount via laser lift-off through an opening situated above the chips to be collected; a tunnel, coupled to the cavity, that provides a vacuum to the cavity and removes the chips from the cavity; a first pipe and a second pipe that provide air pressure into the cavity via, respectively, a first air knife and a second air knife; wherein the first air knife, extended into the cavity, provides an air flow into the cavity, the first air knife being located in an upper half of the cavity opposite the tunnel and is oriented toward a lower half of the cavity; and the second air knife, extended into the cavity, provides a second air flow into the cavity, the second air knife being located in the lower half of the cavity opposite the tunnel and is oriented toward the upper half of the cavity. a cavity that receives chips that are released from a submount via laser lift-off through an opening situated above the chips to be collected; a tunnel, coupled to the cavity, that provides a vacuum to the cavity and removes the chips from the cavity; a first pipe and a second pipe that provide air pressure into the cavity via, respectively, a first air knife and a second air knife; wherein the first air knife, extended into the cavity, provides an air flow into the cavity, the first air knife being located in an upper half of the cavity opposite the tunnel and is oriented toward a lower half of the cavity; and the second air knife, extended into the cavity, provides a second air flow into the cavity, the second air knife being located in the lower half of the cavity opposite the tunnel and is oriented toward the upper half of the cavity.
An epithelialization dressing for forming anchor points between neo-epithelium tissue and an adjacent layer of tissue, the epithelialization dressing comprising: a dressing body having a first side and a second, tissue-facing side; a plurality of projections, each projection having a proximal end and a distal end, each proximal end coupled to the second, tissue-facing side of the dressing body, wherein each projection has a length in the range of 10 to 5000 microns; and a first plurality of apertures (114, 116) formed on a portion of the dressing body, characterised in that each projection comprises pores and an interior portion supply reservoir, wherein the pores provide fluid communication between the interior portion supply reservoir and an exterior portion of the projection for each projection. a dressing body having a first side and a second, tissue-facing side; a plurality of projections, each projection having a proximal end and a distal end, each proximal end coupled to the second, tissue-facing side of the dressing body, wherein each projection has a length in the range of 10 to 5000 microns; and a first plurality of apertures (114, 116) formed on a portion of the dressing body, characterised in that each projection comprises pores and an interior portion supply reservoir, wherein the pores provide fluid communication between the interior portion supply reservoir and an exterior portion of the projection for each projection.
A housing assembly comprising: a housing comprising an access panel and a cavity defined therein to enclose at least one electrical system, wherein said housing comprises a top portion coupled to said access panel, at least one sidewall (304, 306) coupled to said top portion and to said access panel, a rear portion coupled to said at least one sidewall (304, 306) and to said top portion and a base portion coupled to said at least one sidewall (304, 306) and to said rear portion; a cover configured to enclose a portion of said housing such that said access panel remains accessible and said cover is positioned against the portion of said housing, wherein the cover comprises a first portion positioned against said housing top portion, a second portion coupled to said first portion and positioned against said housing rear portion; and at least one side portion (346, 348) coupled to said first portion and to said second portion, said at least one side portion (346, 348) positioned against said at least one housing sidewall (304, 306), wherein said first portion conceals said housing top, said second portion conceals said housing rear portion, and said at least one side portion (346, 348) conceals said at least one housing sidewall (304, 306); a first gasket extending between said access panel and said first portion and said at least one side portion (346, 348); and a second gasket extending between said second portion and said at least one side portion (346, 348), such that a seal is formed on the housing assembly that substantially prevents fluid from entering the housing assembly. a housing comprising an access panel and a cavity defined therein to enclose at least one electrical system, wherein said housing comprises a top portion coupled to said access panel, at least one sidewall (304, 306) coupled to said top portion and to said access panel, a rear portion coupled to said at least one sidewall (304, 306) and to said top portion and a base portion coupled to said at least one sidewall (304, 306) and to said rear portion; a cover configured to enclose a portion of said housing such that said access panel remains accessible and said cover is positioned against the portion of said housing, wherein the cover comprises a first portion positioned against said housing top portion, a second portion coupled to said first portion and positioned against said housing rear portion; and at least one side portion (346, 348) coupled to said first portion and to said second portion, said at least one side portion (346, 348) positioned against said at least one housing sidewall (304, 306), wherein said first portion conceals said housing top, said second portion conceals said housing rear portion, and said at least one side portion (346, 348) conceals said at least one housing sidewall (304, 306); a first gasket extending between said access panel and said first portion and said at least one side portion (346, 348); and a second gasket extending between said second portion and said at least one side portion (346, 348), such that a seal is formed on the housing assembly that substantially prevents fluid from entering the housing assembly.
A seal assembly (160, 260) comprising: a support member (162, 262); and a plurality of seal sections (164, 264, 166, 266, 168, 268, 170, 270, 172, 272, 174, 272) connected to the support member, characterised in that the support member including a ring portion (162a, 262a) and a seal portion (162b, 262b) disposed within the ring portion, the seal portion supporting the plurality of seal sections when the plurality of seal sections is in a folded position, the seal portion and the plurality of seal sections, when in said folded position, defining an opening (161a, 261a) configured to receive a surgical instrument in a sealed manner, wherein the ring portion, seal portion and the plurality of seal sections are integrally formed. a support member (162, 262); and a plurality of seal sections (164, 264, 166, 266, 168, 268, 170, 270, 172, 272, 174, 272) connected to the support member, characterised in that
A medical analysis method using a medical analysis machine provided with a poly-articulated robot comprising joints defining at least six axes of rotation (A1, A2, A3, A4, A5, A6) and adapted for displacing and/or orienting a terminal member according to six degrees of freedom, the terminal member bearing a grasping member adapted for grasping a container, said medical analysis method comprising at least the succession of the following steps: - a sample to be treated stemming from a human being or an animal is extracted from a storage receptacle and introduced into the container by means of the poly-articulated robot, - said container is transferred to at least one treatment station of the medical analysis machine by means of the poly-articulated robot, - the sample is treated in the treatment station, - the container is transferred to a station for capturing images and the results of the treatment are displayed on a user interface. - a sample to be treated stemming from a human being or an animal is extracted from a storage receptacle and introduced into the container by means of the poly-articulated robot, - said container is transferred to at least one treatment station of the medical analysis machine by means of the poly-articulated robot, - the sample is treated in the treatment station, - the container is transferred to a station for capturing images and the results of the treatment are displayed on a user interface.
LED replacement lamp, comprising - one or more LED lighting elements arranged on an elongated member with a first end and opposite second end, wherein at each of said opposite ends (20a, 20b) two electrical contacts (24a, 26a; 24b, 26b) are provided, - wherein a LED driver circuit is arranged for supplying electrical power to said LED lighting elements, - wherein said LED driver circuit is electrically connected only to said electrical contacts (24a, 26a) at said first end, - and wherein said electrical contacts (24b, 26b) at said second end are interconnected by a safety circuit (40, 140), characterised in that said safety circuit provides a current limitation and an electrical resistance of 7.06 Ω or above between said contacts (24b, 26b). - one or more LED lighting elements arranged on an elongated member with a first end and opposite second end, wherein at each of said opposite ends (20a, 20b) two electrical contacts (24a, 26a; 24b, 26b) are provided, - wherein a LED driver circuit is arranged for supplying electrical power to said LED lighting elements, - wherein said LED driver circuit is electrically connected only to said electrical contacts (24a, 26a) at said first end, - and wherein said electrical contacts (24b, 26b) at said second end are interconnected by a safety circuit (40, 140), characterised in that
A method for knitting a seamless instep cover (1, 2, 3, 4, 7) that covers a portion on an instep side of a wearer, of a shoe upper configuring a shoe, with a flat knitting machine including at least a pair of a front and a back needle bed; wherein assuming in the instep cover (1, 2, 3, 4, 7), a portion that covers a region from an Achilles tendon to a heel of the wearer is a heel cover section, and a portion excluding the heel cover section is a body section; characterized in that the following processes are sequentially carried out: process α of knitting the body section from a toe side toward a heel side to complete the body section, a left side portion and a right side portion of the body section being knitted while being arranged side by side on the needle beds; process β of knitting a set up portion to become an upper end of the heel cover section between a terminating stitch row of the left side portion and a terminating stitch row of the right side portion in a longitudinal direction of the needle bed; and process γ of repeating knitting of a stitch row to become the heel cover section following the wale direction of the set up portion and connecting of a stitch on one end side and a stitch on the other end side in a knitting width direction of the stitch row to a stitch of the terminating stitch row of the left side portion and a stitch of the terminating stitch row of the right side portion respectively to complete the heel cover section; and wherein a knitting structure is knitted using the front and back needle beds in at least one part of the process α to the process γ. process α of knitting the body section from a toe side toward a heel side to complete the body section, a left side portion and a right side portion of the body section being knitted while being arranged side by side on the needle beds; process β of knitting a set up portion to become an upper end of the heel cover section between a terminating stitch row of the left side portion and a terminating stitch row of the right side portion in a longitudinal direction of the needle bed; and process γ of repeating knitting of a stitch row to become the heel cover section following the wale direction of the set up portion and connecting of a stitch on one end side and a stitch on the other end side in a knitting width direction of the stitch row to a stitch of the terminating stitch row of the left side portion and a stitch of the terminating stitch row of the right side portion respectively to complete the heel cover section; and wherein a knitting structure is knitted using the front and back needle beds in at least one part of the process α to the process γ.
A coating system suitable for application to a metallic substrate comprising: A) a primer layer composition comprising: (i) a first composition comprising: at least one epoxy resin and (ii) a second composition comprising at least one amine curing agent; and B) a top coat composition comprising: (i) a first composition comprising: at least one crosslinkable component having at least two acidic C-H protons; at least one unsaturated group containing component that reacts via Real Michael Addition with component, and (ii) a second composition comprising a catalyst for said Michael addition. A) a primer layer composition comprising: (i) a first composition comprising: at least one epoxy resin and (ii) a second composition comprising at least one amine curing agent; and (i) a first composition comprising: at least one epoxy resin and at least one epoxy resin and (ii) a second composition comprising at least one amine curing agent; and B) a top coat composition comprising: (i) a first composition comprising: at least one crosslinkable component having at least two acidic C-H protons; at least one unsaturated group containing component that reacts via Real Michael Addition with component, and (ii) a second composition comprising a catalyst for said Michael addition. (i) a first composition comprising: at least one crosslinkable component having at least two acidic C-H protons; at least one unsaturated group containing component that reacts via Real Michael Addition with component, and at least one crosslinkable component having at least two acidic C-H protons; at least one unsaturated group containing component that reacts via Real Michael Addition with component, and (ii) a second composition comprising a catalyst for said Michael addition.
Method for controlling a food preparation household electrical heating mixing appliance to bind a food preparation based on egg and/or oil, said food preparation household electrical heating mixing appliance having a mixing blade rotated in a container resting on a heating base comprising heating means connected to a temperature control device in contact with the container, in a first heating phase the heating means being powered independently of the temperature measured by the temperature control device, as long as the temperature measured by the temperature control device remains less than a first heating transition threshold (91 a, 91 b, 91 c), characterised in that: - the power supply of the heating means is switched on again for a second temporary heating phase when the temperature measured by the temperature control device falls below a second heating control threshold (92a, 92b, 92c), - the power supply of the heating means is switched on again for a third temporary heating phase when the temperature measured by the temperature control device falls below a third heating control threshold (93a, 93b, 93c) greater than the second heating control threshold (92a, 92b, 92c). - the power supply of the heating means is switched on again for a second temporary heating phase when the temperature measured by the temperature control device falls below a second heating control threshold (92a, 92b, 92c), - the power supply of the heating means is switched on again for a third temporary heating phase when the temperature measured by the temperature control device falls below a third heating control threshold (93a, 93b, 93c) greater than the second heating control threshold (92a, 92b, 92c).