mhurhangee/ep-ind-claims huggingface dataset:
Control device for a motor vehicle, comprising: - a touch-sensitive control surface comprising a sensor to detect contact of the user with the touch-sensitive control surface, - at least one actuator to cause the touch-sensitive control surface to move in order to generate haptic feedback to the user, - a support for an electronic circuit of the said device characterized in that the said actuator comprises two electrical connection pins (11A, 11B) brought into contact with conducting tracks of the said circuit in order to connect the said actuator and the said support electrically, and in that the said support is mechanically coupled to the touch-sensitive control surface via a base. - a touch-sensitive control surface comprising a sensor to detect contact of the user with the touch-sensitive control surface, - at least one actuator to cause the touch-sensitive control surface to move in order to generate haptic feedback to the user, - a support for an electronic circuit of the said device
A packaging apparatus for articles, such as beverage containers or the like, comprising - at least one conveying means (24, 32), which is driven in a circulating manner; - multiple format parts, which are fastenable to the at least one conveying means (24, 32), which is driven in a circulating manner; as well as - at least one manipulator (50, 50') designed for the handling of format parts, wherein it is provided that - the at least one manipulator (50, 50') designed for the handling of format parts is developed to achieve an autonomous fastening at a defined spacing distance of the multiple format parts to the at least one conveying means (24, 32), which is driven in a circulating manner, characterised in that the at least one manipulator (50, 50') designed for the handling of format parts is able to impart a linear movement to the multiple format parts for the purpose of the autonomous fastening to the at least one conveying means (24, 32), which is driven in a circulating manner, wherein the at least one manipulator (50, 50') designed for the handling of format parts has a linear guide, along which linear guide the multiple format parts are movable for the purpose of the autonomous fastening to the at least one conveying means (24, 32), which is driven in a circulating manner. - at least one conveying means (24, 32), which is driven in a circulating manner; - multiple format parts, which are fastenable to the at least one conveying means (24, 32), which is driven in a circulating manner; as well as - at least one manipulator (50, 50') designed for the handling of format parts, wherein it is provided that - the at least one manipulator (50, 50') designed for the handling of format parts is developed to achieve an autonomous fastening at a defined spacing distance of the multiple format parts to the at least one conveying means (24, 32), which is driven in a circulating manner,
A scroll compressor comprising: a housing; scroll compressor bodies (110, 112) disposed in the housing, the scroll bodies (110, 112) including a first scroll body (110, 112) and a second scroll body (110, 112), the first and second scroll bodies (110, 112) having respective bases (116, 120) and respective scroll ribs (114, 118) that project from the respective bases (116, 120), wherein the scroll ribs (114, 118) mutually engage, the second scroll body (110, 112) being movable relative to the first scroll body (110, 112) for compressing fluid; and a drive unit configured to rotate a drive shaft about an axis to drive the second scroll body (110, 112) in an orbital path, the drive shaft having an eccentric drive configured to engage a corresponding drive hub on the second scroll body (110, 112); characterised in that the eccentric drive has a drive surface (75, 202) acting on the corresponding drive hub in a first plane, the drive shaft having a locating feature for a counterweight (130, 230), the locating feature being aligned in either the first plane or aligned in a second plane parallel to the first plane. a housing; scroll compressor bodies (110, 112) disposed in the housing, the scroll bodies (110, 112) including a first scroll body (110, 112) and a second scroll body (110, 112), the first and second scroll bodies (110, 112) having respective bases (116, 120) and respective scroll ribs (114, 118) that project from the respective bases (116, 120), wherein the scroll ribs (114, 118) mutually engage, the second scroll body (110, 112) being movable relative to the first scroll body (110, 112) for compressing fluid; and a drive unit configured to rotate a drive shaft about an axis to drive the second scroll body (110, 112) in an orbital path, the drive shaft having an eccentric drive configured to engage a corresponding drive hub on the second scroll body (110, 112); characterised in that the eccentric drive has a drive surface (75, 202) acting on the corresponding drive hub in a first plane, the drive shaft having a locating feature for a counterweight (130, 230), the locating feature being aligned in either the first plane or aligned in a second plane parallel to the first plane.
A method for assembling an aircraft fuselage, comprising: providing a mid-fuselage section (404, 414, 424) having a first end and a second end; providing a boron reinforced keel (400, 410, 420); securing the boron reinforced keel (400, 410, 420) to the mid-fuselage section (404, 414, 424, 502) such that a first portion of the boron reinforced keel (400, 410, 420) extends beyond the mid-fuselage section first end; providing a second fuselage section; securing the first portion of the boron reinforced keel (400, 410, 420) to the second fuselage section; and splicing the second fuselage section to the mid-fuselage section (404, 414, 424, 502). providing a mid-fuselage section (404, 414, 424) having a first end and a second end; providing a boron reinforced keel (400, 410, 420); securing the boron reinforced keel (400, 410, 420) to the mid-fuselage section (404, 414, 424, 502) such that a first portion of the boron reinforced keel (400, 410, 420) extends beyond the mid-fuselage section first end; providing a second fuselage section; securing the first portion of the boron reinforced keel (400, 410, 420) to the second fuselage section; and splicing the second fuselage section to the mid-fuselage section (404, 414, 424, 502).
A peptide agent for use in treatment of a disease selected from retinitis pigmentosa, stroke, multiple sclerosis, spinal cord injury, or optic nerve injury in a subject in need thereof, the treatment comprising administration of the peptide agent to the subject, wherein the peptide agent consists of an amino acid sequence of amino acids 1 to 383 of SEQ ID NO:1 or amino acids 1 to 417 of SEQ ID NO:11 and promotes both (i) neuronal cell survival and (ii) axon growth and/or axon regeneration.
A turbine blade comprising: an airfoil including an outer wall extending radially outwardly from a root, the outer wall including pressure and suction sides (32, 34) extending laterally from a leading edge to a trailing edge of the airfoil, the trailing edge being axially spaced apart from and downstream of the leading edge; a tip cap extending between the pressure and suction sides and between the leading and trailing edges; a tip wall extending outwardly from the tip cap, wherein the tip wall includes a recessed tip wall portion recessed inboard from the pressure side of the outer wall forming a tip shelf between the pressure side of the outer wall and the recessed tip wall portion; an internal cooling circuit extending within the airfoil and being bounded in part by the tip cap; and a plurality of tip shelf holes extending through the tip shelf in flow communication with the internal cooling circuit; characterized in that: a plurality of tip wall openings extend through and to an outboard side of the recessed tip wall portion radially outward of the tip shelf in flow communication with the internal cooling circuit, wherein each of the plurality of tip wall openings is generally disposed in staggered relationship to each of the plurality of tip shelf holes. an airfoil including an outer wall extending radially outwardly from a root, the outer wall including pressure and suction sides (32, 34) extending laterally from a leading edge to a trailing edge of the airfoil, the trailing edge being axially spaced apart from and downstream of the leading edge; a tip cap extending between the pressure and suction sides and between the leading and trailing edges; a tip wall extending outwardly from the tip cap, wherein the tip wall includes a recessed tip wall portion recessed inboard from the pressure side of the outer wall forming a tip shelf between the pressure side of the outer wall and the recessed tip wall portion; an internal cooling circuit extending within the airfoil and being bounded in part by the tip cap; and a plurality of tip shelf holes extending through the tip shelf in flow communication with the internal cooling circuit; a plurality of tip wall openings extend through and to an outboard side of the recessed tip wall portion radially outward of the tip shelf in flow communication with the internal cooling circuit, wherein each of the plurality of tip wall openings is generally disposed in staggered relationship to each of the plurality of tip shelf holes.
A hair colorant composition comprising: (a) 2-methoxymethyl-1,4-diaminobenzene developer; (b) a second developer being toluene-2,5-diamine; (c) a suitable coupler material; and (d) an oxidizing agent; wherein the hair colorant composition comprises by weight, based on the weight of the hair colorant composition: - from 0.001% to 6% of said 2-methoxymethyl- 1,4-diaminobenzene developer; - from 0.001% to 6% of said second developer; - from 0.001% to 6% of said suitable coupler material; - from 0.1% to 10% of said oxidizing agent. (a) 2-methoxymethyl-1,4-diaminobenzene developer; (b) a second developer being toluene-2,5-diamine; (c) a suitable coupler material; and (d) an oxidizing agent; - from 0.001% to 6% of said 2-methoxymethyl- 1,4-diaminobenzene developer; - from 0.001% to 6% of said second developer; - from 0.001% to 6% of said suitable coupler material; - from 0.1% to 10% of said oxidizing agent.
A domestic electrical appliance proper having a base component (18; 42) having a discrete 360° waterproof cordless connector sealed thereto, wherein the base component is sealed against an inner side wall of a bottom section of the appliance proper so as to waterproof the appliance proper.
A process for manufacturing methyl t-butyl ether comprising: a first step comprising cracking raw material comprising ethane or propane to form ethylene; and recovering residual uncracked raw material; a second step comprising dimerizing ethylene to form n-butylene; a third step comprising isomerizing the n-butylene to form isobutylene; an optional fourth step comprising oxidizing methane to form methanol; a fifth step comprising etherifying the isobutylene with methanol to form methyl t-butyl ether; and a sixth step comprising collecting the methyl t-butyl ether. a first step comprising cracking raw material comprising ethane or propane to form ethylene; and recovering residual uncracked raw material; a second step comprising dimerizing ethylene to form n-butylene; a third step comprising isomerizing the n-butylene to form isobutylene; an optional fourth step comprising oxidizing methane to form methanol; a fifth step comprising etherifying the isobutylene with methanol to form methyl t-butyl ether; and a sixth step comprising collecting the methyl t-butyl ether.
A power train system comprising an engine, an output member (222;322;422;822;922), a magnetic gear (200;900) connecting the engine to the output member, an energy storage system, and control means arranged to control the flow of power from the engine to the energy storage system or from the energy storage system to the output member if a required power at the output member is different from a power at the engine, wherein the magnetic gear comprises a first rotor (202;302;402;502;802;902) having a first set of magnetic poles, a second rotor having a second set of magnetic poles, and the first and second rotors have different numbers of magnetic poles, the pole pieces are arranged to modulate the magnetic field acting between the magnetic poles, and characterized by a third rotor having a set of pole pieces, and the control means is arranged to control rotation of one of the rotors so as to vary the gear ratio between the other two rotors.
A method comprising: defining multiple communication policies involving multiple device roles based on user input, each communication policy defining communications allowed to occur between a pair of the device roles; generating access vectors using the communication policies, each access vector identifying communications allowed to occur to or from one of the device roles; and providing at least one of the access vectors to at least one of: a specified device (202, 204) in an industrial process control and automation system and one or more other devices in the industrial process control and automation system, the specified device having a specified one of the device roles, the at least one access vector based on one or more of the communication policies defining communications allowed to occur to or from the specified device role of the specified device; wherein the at least one access vector is provided to at least one of the specified device and the one or more other devices in order to control communications to or from the specified device. defining multiple communication policies involving multiple device roles based on user input, each communication policy defining communications allowed to occur between a pair of the device roles; generating access vectors using the communication policies, each access vector identifying communications allowed to occur to or from one of the device roles; and providing at least one of the access vectors to at least one of: a specified device (202, 204) in an industrial process control and automation system and one or more other devices in the industrial process control and automation system, the specified device having a specified one of the device roles, the at least one access vector based on one or more of the communication policies defining communications allowed to occur to or from the specified device role of the specified device; wherein the at least one access vector is provided to at least one of the specified device and the one or more other devices in order to control communications to or from the specified device.
A method for fractionating a crude mixture comprising at least one oil and at least one wax, which comprises the following method steps: (a) carrying out a pre-fractionation stage as a layer crystallization (i) with a crude mixture comprising at least one oil and at least one wax or (ii) with a crude solvent mixture obtained by adding prior to the pre-fractionation stage at most 100% by weight of solvent relative to the weight of the crude mixture, to prepare a first fraction containing low waxy oil and a second fraction containing low oily wax, (b) carrying out a first crystallization stage including (b 1) a first suspension crystallization sub-stage with the first fraction containing low waxy oil to prepare a third fraction containing dewaxed oil and a fourth fraction and (b 2) after the first suspension crystallization sub-stage, a second suspension crystallization sub-stage with a mixture of the fourth fraction obtained in the pre-fractionation stage of method step (b 1) and the second fraction containing low oily wax obtained in method step (a) to prepare a fifth fraction containing slack wax and a sixth fraction. (a) carrying out a pre-fractionation stage as a layer crystallization (i) with a crude mixture comprising at least one oil and at least one wax or (ii) with a crude solvent mixture obtained by adding prior to the pre-fractionation stage at most 100% by weight of solvent relative to the weight of the crude mixture, to prepare a first fraction containing low waxy oil and a second fraction containing low oily wax, (b) carrying out a first crystallization stage including (b 1) a first suspension crystallization sub-stage with the first fraction containing low waxy oil to prepare a third fraction containing dewaxed oil and a fourth fraction and (b 2) after the first suspension crystallization sub-stage, a second suspension crystallization sub-stage with a mixture of the fourth fraction obtained in the pre-fractionation stage of method step (b 1) and the second fraction containing low oily wax obtained in method step (a) to prepare a fifth fraction containing slack wax and a sixth fraction.
A seismic survey system for recording seismic signals during a marine seismic survey, the system comprising: a plurality of autonomous underwater vehicles (AUVs; 100) having one or more seismic sensors; and characterised by comprising a plurality of underwater bases, each being configured to house at least one AUV of the plurality of AUVs; the underwater bases each being connected through a corresponding cable to a corresponding buoy or to a vessel that is floating at the water surface; the underwater bases each having a controller that determines its geographical location and transmits the geographical location to at least one AUV of the plurality of AUVs; and each of the plurality of AUVs being configured to receive a signal from at least two of the underwater bases when traveling under water so that its trajectory is adjusted in real-time, based on the geographical locations of the at least two of the underwater bases while moving toward a target position. a plurality of autonomous underwater vehicles (AUVs; 100) having one or more seismic sensors; and characterised by comprising a plurality of underwater bases, each being configured to house at least one AUV of the plurality of AUVs; the underwater bases each being connected through a corresponding cable to a corresponding buoy or to a vessel that is floating at the water surface; the underwater bases each having a controller that determines its geographical location and transmits the geographical location to at least one AUV of the plurality of AUVs; and each of the plurality of AUVs being configured to receive a signal from at least two of the underwater bases when traveling under water so that its trajectory is adjusted in real-time, based on the geographical locations of the at least two of the underwater bases while moving toward a target position.
A respiratory mask for use in an aircraft, comprising: a plurality of sensors monitoring at least one of cockpit ambient air for at least one parameter capable of affecting oxygen level and health of a crew member for at least one parameter capable of causing respiratory disorder, and providing associated output signals; and a regulator electronically coupled to the plurality of sensors, wherein the regulator automatically switches between operating modes to supply respiratory gas to the crew member based on the associated output signals of the plurality of sensors, wherein the operating modes comprise a dilution mode, an emergency mode, and a recirculation mode, wherein the respiratory gas comprises a combination of exhaled gas and oxygen during the recirculation mode. a plurality of sensors monitoring at least one of cockpit ambient air for at least one parameter capable of affecting oxygen level and health of a crew member for at least one parameter capable of causing respiratory disorder, and providing associated output signals; and a regulator electronically coupled to the plurality of sensors, wherein the regulator automatically switches between operating modes to supply respiratory gas to the crew member based on the associated output signals of the plurality of sensors, wherein the operating modes comprise a dilution mode, an emergency mode, and a recirculation mode, wherein the respiratory gas comprises a combination of exhaled gas and oxygen during the recirculation mode.
Device for adjusting a linear position of one or more shutters in an injection moulding system, wherein the shutter can open and/or close a molten-fluid supply channel towards one or more mould cavities by translating along an axis, the device comprising: - a body comprising a cavity in which there can slide axially a movable element, to which the one or more shutters can be fixed; - a fixed support plate, - an adjustment element for adjustment of the axial position of the body, characterized in that the adjustment element • is rotatably mounted between the body and the support plate, • is connected to the body and to the support plate so that it can be rotated clockwise and/or counter-clockwise so as to move linearly parallel to said axis in order to define the position of the body along said axis, and • comprises a threaded portion (62, 64) on which a corresponding thread (36, 32) of the body and of the support plate is engaged. the device comprising: - a body comprising a cavity in which there can slide axially a movable element, to which the one or more shutters can be fixed; - a fixed support plate, - an adjustment element for adjustment of the axial position of the body, - a body comprising a cavity in which there can slide axially a movable element, to which the one or more shutters can be fixed; - a fixed support plate, - an adjustment element for adjustment of the axial position of the body, characterized in that the adjustment element • is rotatably mounted between the body and the support plate, • is connected to the body and to the support plate so that it can be rotated clockwise and/or counter-clockwise so as to move linearly parallel to said axis in order to define the position of the body along said axis, and • comprises a threaded portion (62, 64) on which a corresponding thread (36, 32) of the body and of the support plate is engaged. • is rotatably mounted between the body and the support plate, • is connected to the body and to the support plate so that it can be rotated clockwise and/or counter-clockwise so as to move linearly parallel to said axis in order to define the position of the body along said axis, and • comprises a threaded portion (62, 64) on which a corresponding thread (36, 32) of the body and of the support plate is engaged.
Method for controlling a plurality (m) of drive coils (Sm) of a long-stator linear motor, wherein in a normal operation the drive coils (Sm) are energized such that a magnetic field coupled to a transport unit is moved along a direction of motion (x) in order to move the transport unit along the direction of motion (x), wherein during a braking operation, the transport unit is switched to a controlled short-circuit mode in which at least some of the drive coils (Sm) are short-circuited at least over a first time interval, characterized in that in the controlled short-circuit mode the at least some of the drive coils (Sm) are operated at idle for at least a second time interval.