mhurhangee/patent-ind-claim-en huggingface dataset:
A closure comprising: an outer shell having an outer top panel , an outer cylindrical sidewall extending downward from the outer top panel, and an engagement groove disposed on an inner facing of the outer cylindrical sidewall; an inner shell nested within the outer shell and movable in an axial direction relative to the outer shell, said inner shell having an inner top panel , an inner skirt extending downward from the inner top panel, a radially protruding engagement feature disposed on an outer facing of the inner cylindrical sidewall and received and restrained within the engagement groove; wherein selectively interlocking child resistant features are formed on each of the outer shell and the inner shell along an interface therebetween; and characterised in that downward movement of the outer shell urges a ramped or flared flange on the protruding engagement feature into contact against a ramp on the engagement groove to produce an interference fit between the protruding engagement feature and the engagement groove. an outer shell having an outer top panel , an outer cylindrical sidewall extending downward from the outer top panel, and an engagement groove disposed on an inner facing of the outer cylindrical sidewall; an inner shell nested within the outer shell and movable in an axial direction relative to the outer shell, said inner shell having an inner top panel , an inner skirt extending downward from the inner top panel, a radially protruding engagement feature disposed on an outer facing of the inner cylindrical sidewall and received and restrained within the engagement groove; wherein selectively interlocking child resistant features are formed on each of the outer shell and the inner shell along an interface therebetween; and characterised in that downward movement of the outer shell urges a ramped or flared flange on the protruding engagement feature into contact against a ramp on the engagement groove to produce an interference fit between the protruding engagement feature and the engagement groove.
Unwinding section for unwinding a fiber web (W) from a parent roll wound around a reeling shaft , which unwinding section comprises two unwinding positions (I, II) consisting of a first unwinding position (I) and a second unwinding position (II), in which unwinding section the unwinding of the parent roll is configured to be begun at the first unwinding position (I) and in which unwinding section towards end of the unwinding the parent roll is configured to be transferred to the second unwinding position (II), which unwinding section comprises a broke opening , which unwinding section comprises a slabbing device configured to operate in area of the first and second unwinding positions (I, II), which slabbing device is configured to pick up a slab fiber web (RW) from a reject roll formed of a fiber web remaining on the reeling shaft after the unwinding of the parent roll is finished in the second unwinding position (II) and that the slabbing device is configured to empty the slab fiber web (RW) through the broke opening , characterized in, that the slabbing device comprises a slabbing roll and transfer arms , and that the slabbing roll is rotatably attached from each end to the corresponding transfer arm .
A battery box, comprising a lower box body , characterised in that the lower box body comprises: a first plate , comprising: a bottom wall ; a peripheral wall , which is connected to a periphery of the bottom wall and extends upward; and the bottom wall and the peripheral wall form an accommodating space opening upwards; a second plate , which is fixed to the bottom wall from a bottom and engages with the bottom wall to form a flow passage (F), wherein the second plate is provided with: a second protrusion , which protrudes from a side facing a reinforcing beam to the first plate and extends along a transverse direction (T); and an opening , which runs through the second protrusion of the second plate along a height direction (H) and extends along the transverse direction (T), the second protrusion of the second plate being connected to the bottom wall of the first plate in a sealed manner; and the battery box further comprises: the reinforcing beam , which is arranged under the second plate and extends along the transverse direction (T), the reinforcing beam being installed at a position of a corresponding opening and being fixedly connected to the first plate and/or the second plate . a first plate , comprising: a bottom wall ; a peripheral wall , which is connected to a periphery of the bottom wall and extends upward; and the bottom wall and the peripheral wall form an accommodating space opening upwards; a second plate , which is fixed to the bottom wall from a bottom and engages with the bottom wall to form a flow passage (F), wherein the second plate is provided with: a second protrusion , which protrudes from a side facing a reinforcing beam to the first plate and extends along a transverse direction (T); and an opening , which runs through the second protrusion of the second plate along a height direction (H) and extends along the transverse direction (T), the second protrusion of the second plate being connected to the bottom wall of the first plate in a sealed manner; and the battery box further comprises: the reinforcing beam , which is arranged under the second plate and extends along the transverse direction (T), the reinforcing beam being installed at a position of a corresponding opening and being fixedly connected to the first plate and/or the second plate .
A head harness for a patient interface , wherein the head harness is formed from at least one fabric strap , wherein the fabric strap has, at least regionally, a reinforced region , wherein the fabric strap has a width (B), a length (L), and a thickness (S), wherein the reinforced region produces a reinforcement such that the fabric strap is less movable in the direction of the width (B) than in the direction of the thickness (S), wherein the fabric strap has a first fabric layer and a second fabric layer , wherein an intermediate layer is formed between the first fabric layer and the second fabric layer and comprises the greatest portion of the thickness (S), characterized in that the intermediate layer has or forms the reinforced region , wherein the intermediate layer is a foam layer .
A cistern with a cover for a toilet, wherein an actuation device is provided for a drain valve arranged on the bottom of the cistern and has a strut , wherein the actuation device is fastened with a threaded sleeve insertable from outside and extending at least partially through the cover , in the opening thereof, and with a housing of the actuation device arranged on the inside of the cover , wherein at least one bracket is formed on the housing for a strut , which is variable in length and connectable, by means of toothing for a stepped snap-in connection, to the drain valve such that the cover is held securely on the cistern , wherein furthermore an elastic compensation element is arranged between the underside of the cover and the housing such that the depth to which the threaded sleeve is screwed into the housing remains the same regardless of the thickness of the cover and an adaptation of at least one button in the threaded sleeve is thus unnecessary, wherein at least two diametrically opposed spring tongues are arranged on the housing of the actuation device as an elastic compensation element, characterized in that radial projections are formed on a ring body of the housing , which body abuts via two diametrically opposite leaf springs with a central housing of the actuation device and with two diametrically opposite spring tongues on the cover such that the stepped snap-in connection is elastically compensated.
Package made of composite material, comprising: - a package base (B) with two front base corners (BV1, BV2) and with two rear base corners (BH1, BH2), - a package gable (G) with two front gable corners (GV1, GV2) and with two rear gable corners (GH1, GH2), and - a package base body (K) with a front panel (F), a first side panel (S1), a second side panel (S2) and a rear panel (R), - wherein the package base (B) and the package gable (G) are arranged on opposite sides of the package base body (K), - wherein the composite material has a polymer outer layer, a polymer inner layer and a fibrous support layer, which is arranged between the polymer outer layer and the polymer inner layer, and - a third sleeve fold line (M3), which has a plurality of sections (II, III), which each adjoin a side panel (S1, S2) and the rear panel (R), and of which at least one section (II, III) is curved, characterised in that at least one section (I, IV) of the third sleeve fold line (M3) is straight and/or at least two sections (II, III) of the third sleeve fold line (M3) have opposite curvature directions. - a package base (B) with two front base corners (BV1, BV2) and with two rear base corners (BH1, BH2), - a package gable (G) with two front gable corners (GV1, GV2) and with two rear gable corners (GH1, GH2), and - a package base body (K) with a front panel (F), a first side panel (S1), a second side panel (S2) and a rear panel (R), - wherein the package base (B) and the package gable (G) are arranged on opposite sides of the package base body (K), - wherein the composite material has a polymer outer layer, a polymer inner layer and a fibrous support layer, which is arranged between the polymer outer layer and the polymer inner layer, and - a third sleeve fold line (M3), which has a plurality of sections (II, III), which each adjoin a side panel (S1, S2) and the rear panel (R), and of which at least one section (II, III) is curved,
Method of manufacturing a spectacle frame element comprising a reinforcement support , wherein the method comprises: - a spectacle frame element providing step (S1), during which a spectacle frame element is provided, - a reinforcement support providing step (S2), during which the reinforcement support comprising an electronic support part supporting at least an electronic component and a wire core part extending from the electronic support and configured to extend through the spectacle frame element is provided, the reinforcement support being made of a heat conducting material, - an embodying step (S6) during which the electronic support and the wire core part are embodied in the spectacle frame element upon locally heating the spectacle frame element. - a spectacle frame element providing step (S1), during which a spectacle frame element is provided, - a reinforcement support providing step (S2), during which the reinforcement support comprising an electronic support part supporting at least an electronic component and a wire core part extending from the electronic support and configured to extend through the spectacle frame element is provided, the reinforcement support being made of a heat conducting material, - an embodying step (S6) during which the electronic support and the wire core part are embodied in the spectacle frame element upon locally heating the spectacle frame element.
Console for a medical treatment system, in particular an ophthalmosurgical system for the treatment of an eye , with a console housing and a control unit for controlling a medical treatment instrument , wherein a foot-operated control unit can be wirelessly coupled to the control unit , and the console housing has at least one side wall , characterized in that the side wall has a bearing surface for arranging the foot-operated control unit in a not-in-use position, wherein the bearing surface is inclined with respect to a horizontal plane, at least in the region where the foot-operated control unit is arranged, in order when arranging the foot-operated control unit on the bearing surface to bring about bearing of the foot-operated control unit against the bearing surface by the weight of the foot-operated control unit , wherein the side wall has in the region of the bearing surface a console-side connecting unit for releasably connecting the foot-operated control unit to the console , wherein the console has a charging unit for charging an electrical energy store of the foot-operated control unit , wherein the bearing surface has a charging connection with at least two electrical contacts for contacting corresponding mating contacts of the foot-operated control unit , wherein the bearing surface has a peripheral collar , which projects from the bearing surface and surrounds the electrical contacts , wherein the electrical contacts are preferably formed as resilient electrical pin contacts, wherein the console-side connecting unit has at least two retaining pins for arranging in corresponding receiving openings of the foot-operated control unit , which are arranged at least horizontally spaced-apart from one another.
Plug connector part for connection to a mating plug connector part , comprising - a housing which has a plug section for plug-type connection to the plug connector part , and - at least one contact element , which is arranged on the plug section and has a shaft section , for electrical contact-connection with an associated mating contact element of the mating plug connector part , - a thermal capacity element , which is arranged on the shaft section of the at least one contact element and is fixedly connected to the shaft section , for receiving heat from the at least one contact element , wherein the plug connector part has a plurality of contact elements which are arranged on the plug section , wherein a thermal capacity element is arranged on each contact element , characterized in that the thermal capacity elements of different contact elements are electrically insulated from one another. - a housing which has a plug section for plug-type connection to the plug connector part , and - at least one contact element , which is arranged on the plug section and has a shaft section , for electrical contact-connection with an associated mating contact element of the mating plug connector part , - a thermal capacity element , which is arranged on the shaft section of the at least one contact element and is fixedly connected to the shaft section , for receiving heat from the at least one contact element , wherein the plug connector part has a plurality of contact elements which are arranged on the plug section , wherein a thermal capacity element is arranged on each contact element ,
Use of an agent comprising a lubricant filler and an adduct compound consisting of an adduct of toluene diisocyanate and trimethylolpropane for the treatment of the surface of an oil seal lip portion, wherein the agent is applied to the surface of vulcanized rubber forming a lip portion of the oil seal comprising the lip portion and a metal ring.
A modulating retroreflective multilayer film comprising: retroreflective elements, preferably comprising microprism retroreflectors or holographic retroreflectors; a piezoelectric layer having opposing top and bottom surfaces; a first electrode layer in electrical connection with the top surface of the piezoelectric layer; a second electrode layer in electrical connection with the bottom surface of the piezoelectric layer; a voltage source located within a layer of the multilayer film and being in electrical connection with the first and second electrode layers; a processor located within a layer of the multilayer film and being communicably coupled with the voltage source to apply a voltage across the piezoelectric layer; an energy storage device, preferably a battery or a capacitor, located within a layer of the multilayer film and being configured to store energy used for the applying of the voltage; and a photovoltaic layer communicably in electrical connection with the energy storage device and coupled with the processor to transmit electrical signals to the processor; and wherein the piezoelectric layer and the photovoltaic layer are substantially coextensive with one another such that the surface areas of adjacent or parallel faces of the piezoelectric layer and photovoltaic layer are within 80% of one another. retroreflective elements, preferably comprising microprism retroreflectors or holographic retroreflectors; a piezoelectric layer having opposing top and bottom surfaces; a first electrode layer in electrical connection with the top surface of the piezoelectric layer; a second electrode layer in electrical connection with the bottom surface of the piezoelectric layer; a voltage source located within a layer of the multilayer film and being in electrical connection with the first and second electrode layers; a processor located within a layer of the multilayer film and being communicably coupled with the voltage source to apply a voltage across the piezoelectric layer; an energy storage device, preferably a battery or a capacitor, located within a layer of the multilayer film and being configured to store energy used for the applying of the voltage; and a photovoltaic layer communicably in electrical connection with the energy storage device and coupled with the processor to transmit electrical signals to the processor; and wherein the piezoelectric layer and the photovoltaic layer are substantially coextensive with one another such that the surface areas of adjacent or parallel faces of the piezoelectric layer and photovoltaic layer are within 80% of one another.
A control system for a driving device (DFS, DRS) that is capable of adjusting a left driving force, which is a driving force of a left driving part (WRL) for propelling a vehicle (V), arranged on a left side of the vehicle (V) with respect to a traveling direction of the vehicle (V), and a right driving force, which is a driving force of a right driving part (WRR) for propelling the vehicle (V), arranged on a right side of the vehicle (V) with respect to the traveling direction of the vehicle (V), thereby changing a left-right driving force sum (TTWLR), which is a sum of the left driving force and the right driving force, and a left-right driving force difference (ΔTWLR), which is a difference between the left driving force and the right driving force, independently of each other, the control system comprising: controller for performing an opposite distribution control for generating the left-right driving force difference (ΔTWLR) by controlling the left driving force and the right driving force via the driving device (DFS, DRS) such that a yaw moment in a direction opposite to a turning direction of the vehicle (V) acts on the vehicle (V); and characterized in that the control system further comprises deceleration obtainer for obtaining deceleration of the vehicle (V); during performance of the opposite distribution control, when the deceleration of the vehicle (V) is obtained, said controller performs a limit control for controlling the left driving force and the right driving force such that a change in the left-right driving force difference (ΔTWLR) becomes smaller than a change in the left-right driving force sum (TTWLR). the control system further comprises deceleration obtainer for obtaining deceleration of the vehicle (V); during performance of the opposite distribution control, when the deceleration of the vehicle (V) is obtained, said controller performs a limit control for controlling the left driving force and the right driving force such that a change in the left-right driving force difference (ΔTWLR) becomes smaller than a change in the left-right driving force sum (TTWLR).
A computer implemented method for characterizing a fracture in an underground structure, the method comprising: receiving seismic data acquired during a seismic survey of the underground structure, and additional geological information; generating common midpoint, CMP, gathers of traces from the seismic data; for each interface encountered by traces in at least one of the CMP gathers : estimating angle-dependent azimuthal Fourier coefficients, FCs, performing a nonlinear inversion of amplitude versus offset and azimuth, AVOAz, equations built using the angle-dependent azimuthal Fourier coefficients to determine possible fracture orientations, and selecting one of the possible fracture orientations using constraints based on the additional geological information; and producing an image of the underground structure including the fracture with the selected one of the possible fracture orientations. receiving seismic data acquired during a seismic survey of the underground structure, and additional geological information; generating common midpoint, CMP, gathers of traces from the seismic data; for each interface encountered by traces in at least one of the CMP gathers : estimating angle-dependent azimuthal Fourier coefficients, FCs, performing a nonlinear inversion of amplitude versus offset and azimuth, AVOAz, equations built using the angle-dependent azimuthal Fourier coefficients to determine possible fracture orientations, and selecting one of the possible fracture orientations using constraints based on the additional geological information; and estimating angle-dependent azimuthal Fourier coefficients, FCs, performing a nonlinear inversion of amplitude versus offset and azimuth, AVOAz, equations built using the angle-dependent azimuthal Fourier coefficients to determine possible fracture orientations, and selecting one of the possible fracture orientations using constraints based on the additional geological information; and producing an image of the underground structure including the fracture with the selected one of the possible fracture orientations.
A battery pack having a bottom connection type tray, the battery pack comprising: a tray in which a plurality of battery modules is loaded; a plurality of tray terminals provided on a bottom surface of the tray; a connection wire for interconnecting the tray terminals or connecting the tray terminals to an external circuit is formed in the bottom surface of the tray; and a battery terminal provided in each of the battery modules so as to be connected to a corresponding one of the tray terminals, wherein the battery terminal is provided in a lower surface of each of the battery modules; wherein the tray terminals are provided on the bottom surface of the tray so as to protrude upwards and so as to correspond to the respective battery modules. a tray in which a plurality of battery modules is loaded; a plurality of tray terminals provided on a bottom surface of the tray; a connection wire for interconnecting the tray terminals or connecting the tray terminals to an external circuit is formed in the bottom surface of the tray; and a battery terminal provided in each of the battery modules so as to be connected to a corresponding one of the tray terminals, wherein the battery terminal is provided in a lower surface of each of the battery modules; wherein the tray terminals are provided on the bottom surface of the tray so as to protrude upwards and so as to correspond to the respective battery modules.
Method for molding and/or laminating a film element , in which the film element is held by means of a carrier frame by means of a mold or a component to be laminated, and in which the mold or the component to be laminated is moved through the foil element plane created by the film element , in order to transfer a contour of the molding tool or of the component to be laminated to the film element , wherein at least one marking of the heated film element being detected within a device by a sensor assigned to this marking at the inlet and a sensor assigned to this marking at the outlet of the device , whereupon the control signals of the sensors bring about a relative displacement of the film element and the molding tool or the component to be laminated within the device , characterized in that when the film element is clamped to the working area of the device and the marking is aligned with respect to the molding tool or the component to be laminated, the film element is subjected to a molding process, wherein the position of the marking being monitored by the sensors before, during and after the molding process and being corrected if necessary.