mhurhangee/ep-ind-claims huggingface dataset:
A sealing gasket (100, 200) formed as a single piece of resilient material and comprising: - a first toric part having a first torus diameter and a first cross section with a first dimension which is constant in all directions; - a second toric part having a second torus diameter greater than the first torus diameter and a second cross section with a second dimension which is constant in all directions; and - at least two arms (31, 32), each having a cross section with a dimension which is constant in all directions and comprising a first end and a second end, each first end being linked to the first toric part and each second end being linked to the second toric part; characterized in that, in a folded state, said sealing gasket is substantially planar, and in that, for each arm, said first end is a first bend (311, 321) oriented in a first direction and said second end is a second bend (312, 322) oriented in a second direction, said second direction being opposed to said first direction, in such a way that each arm (31, 32) extends substantially circumferentially between its first bend (311, 321) and its second bend (312, 322), the first bends (311, 321) of the different arms (31, 32) being further all oriented in the same first direction, and accordingly the second bends (312, 322) of the different arms being all oriented in the same second direction, so that the gasket can be deployed by a helical unwinding in a three dimensional unfolded state. - a first toric part having a first torus diameter and a first cross section with a first dimension which is constant in all directions; - a second toric part having a second torus diameter greater than the first torus diameter and a second cross section with a second dimension which is constant in all directions; and - at least two arms (31, 32), each having a cross section with a dimension which is constant in all directions and comprising a first end and a second end, each first end being linked to the first toric part and each second end being linked to the second toric part;
A six-phase rotating electric machine of the double three-phase type comprising a rotor and a stator with two three-phase windings angularly offset from each other and comprising three electronic power modules (15, 16, 17), the first three (2, 3, 4) and the second three (5, 6, 7) phase windings form the first and the second three-phase system which are angularly offset by a predetermined offset angle (φ), wherein the first (2, 3, 4) and the second (5, 6, 7) phase windings are respectively connected from first (U1, V1, W1) and second (U2, V2, W2) phase currents flowing through the first (2, 3, 4) and second (5, 6, 7) phase windings, each electronic power module (15, 16, 17) being capable of controlling a first (U1, V1, W1) and a second (U2, V2, W2) phase current, and each module comprises electronic components and external connection elements (12, 13, 25, 26), each arranged in a housing, including a first and a second power terminal (12, 13) capable of being electrically connected to a first and a second one of the first and the second phase windings (2, 3, 4, 5, 6, 7); 5, 6, 7), the first terminal and the second power terminal (12, 13) of each electronic power module (15, 16, 17) being connected respectively to a winding of the first three-phase system and to a winding of the second three-phase system in order to establish a phase offset a, (15, 16, 17) between these windings, characterised in that the totality of the phase offsets of the electronic power modules (15, 16, 17) is a variation of an instantaneous phase offset α, (15, 16, 17), 17) minimises a variation of a total instantaneous electrical power, corresponding to the sum of the power losses in each of the electronic power modules (15, 16, 17), by an average value as a function of an electrical angle Θ, where θ = ωt, where ω is the pulsation of the phase currents and t is the time variable, the total instantaneous electrical power being proportional to the function sin 2 θ+sin 2 (θ-α), where θ and α are the electrical angle and the phase offset, respectively, where the phase offset is the angle between the phase currents and the time variable, the phase offset, where the phase offset α is 90°.
Cutting guide for generating an outer contour on a bone, wherein a joint endoprosthesis can be applied to the outer contour; the cutting guide has a sagittal guide plate, which can be oriented with respect to the bone, and at least two sagittal guide slits for guiding a bone-cutting tool, wherein the sagittal guide slits pass through the sagittal guide plate and are arranged at an angle to each other, wherein each sagittal guide slit forms a self-contained opening, characterized in that the guide slits are arranged in such a way that the outer contour generated by them at the bone end is formed by mutually adjoining surfaces arranged in the manner of facets.
A flux to be mixed with a Sn-Ag-Bi-In alloy powder to constitute a solder paste, this flux including a diphenyl guanidine hydrohalic acid salt at 0.1 wt% to 2.5 wt%, and a dicarboxylic acid at 0.2 wt% to 5.0 wt% selected from the group consisting of malonic acid, oxalic acid, maleic acid, fumaric acid, citraconic acid and itaconic acid.
An apparatus (100, 200, 401) for measuring an amount of a dispensed fluid for a fluid injection system, the apparatus (100, 200, 401) comprising: a dosage meter (104, 204, 404) shaped to couple with a leadscrew and a cartridge (230, 430) containing a fluid for injection, the dosage meter (104, 204, 404) comprising: an index wheel (122, 222) including a plurality of teeth (138, 238), wherein the index wheel (122, 222) is shaped to position coaxially with a major axis of the leadscrew and to receive rotational motion from the leadscrew; and a cantilevered protrusion (142, 242) positioned to deflect due to contact with the plurality of teeth (138, 238) as the index wheel (122, 222) rotates coaxially with the leadscrew inducing a strain in the cantilevered protrusion (142, 242), wherein the dosage meter (104, 204, 404) outputs a signal indicative of the strain; and a leadscrew extender (120, 220) positioned to be in contact at a first end of the leadscrew extender (120, 220) with a portion of the cartridge (230, 430) and at a second end of the leadscrew extender (120, 220) with an end of the leadscrew, characterized in that the leadscrew extender (120, 220) is shaped to transfer the rotational motion of the leadscrew to the index wheel (122, 222). a dosage meter (104, 204, 404) shaped to couple with a leadscrew and a cartridge (230, 430) containing a fluid for injection, the dosage meter (104, 204, 404) comprising: an index wheel (122, 222) including a plurality of teeth (138, 238), wherein the index wheel (122, 222) is shaped to position coaxially with a major axis of the leadscrew and to receive rotational motion from the leadscrew; and a cantilevered protrusion (142, 242) positioned to deflect due to contact with the plurality of teeth (138, 238) as the index wheel (122, 222) rotates coaxially with the leadscrew inducing a strain in the cantilevered protrusion (142, 242), wherein the dosage meter (104, 204, 404) outputs a signal indicative of the strain; and an index wheel (122, 222) including a plurality of teeth (138, 238), wherein the index wheel (122, 222) is shaped to position coaxially with a major axis of the leadscrew and to receive rotational motion from the leadscrew; and a cantilevered protrusion (142, 242) positioned to deflect due to contact with the plurality of teeth (138, 238) as the index wheel (122, 222) rotates coaxially with the leadscrew inducing a strain in the cantilevered protrusion (142, 242), wherein the dosage meter (104, 204, 404) outputs a signal indicative of the strain; and a leadscrew extender (120, 220) positioned to be in contact at a first end of the leadscrew extender (120, 220) with a portion of the cartridge (230, 430) and at a second end of the leadscrew extender (120, 220) with an end of the leadscrew, characterized in that the leadscrew extender (120, 220) is shaped to transfer the rotational motion of the leadscrew to the index wheel (122, 222).
An insert for a storage container, the insert being configured to receive a plurality of vertically oriented test strips, the insert comprising: a body comprising a base, an upper surface having an upper opening, and an upstanding tubular sidewall extending between said base and said upper surface, the base and the upstanding tubular sidewall together defining an interior space, wherein the upstanding tubular sidewall comprising an inner surface and an outer surface; and a first vent opening extending through the upstanding tubular sidewall through which air can enter the interior space of the body, characterized by a pair of resilient securing tabs extending laterally from the outer surface of the upstanding tubular sidewall, wherein the pair of resilient securing tabs is configured for frictionally engaging the storage container for releasably coupling the insert to the storage container; and a pair of resilient retainer elements extending laterally from the inner surface of the upstanding tubular sidewall and inwardly into the interior space, wherein the pair of resilient retainer elements is configured for frictionally engaging the vertically oriented test strips to facilitate retaining the vertically oriented test strips within the interior space. a body comprising a base, an upper surface having an upper opening, and an upstanding tubular sidewall extending between said base and said upper surface, the base and the upstanding tubular sidewall together defining an interior space, wherein the upstanding tubular sidewall comprising an inner surface and an outer surface; and a first vent opening extending through the upstanding tubular sidewall through which air can enter the interior space of the body, characterized by a pair of resilient securing tabs extending laterally from the outer surface of the upstanding tubular sidewall, wherein the pair of resilient securing tabs is configured for frictionally engaging the storage container for releasably coupling the insert to the storage container; and a pair of resilient retainer elements extending laterally from the inner surface of the upstanding tubular sidewall and inwardly into the interior space, wherein the pair of resilient retainer elements is configured for frictionally engaging the vertically oriented test strips to facilitate retaining the vertically oriented test strips within the interior space.
A method performed by a wireless node, the method comprising: transmitting packet data convergence protocol, PDCP, protocol data unit, PDU, duplicates over two or more carriers; receiving an indication that a PDCP PDU has been successfully delivered via one of the two or more carriers; and the method is characterized by in response to receiving the indication, instructing to discard at least one other PDCP PDU duplicate over carriers other than the one of the two or more carriers with successful delivery, wherein instructing to discard the at least one other PDCP PDU duplicate comprises informing a corresponding radio link control entity not to transmit the at least one other PDCP PDU duplicate. transmitting packet data convergence protocol, PDCP, protocol data unit, PDU, duplicates over two or more carriers; receiving an indication that a PDCP PDU has been successfully delivered via one of the two or more carriers; and the method is characterized by in response to receiving the indication, instructing to discard at least one other PDCP PDU duplicate over carriers other than the one of the two or more carriers with successful delivery, wherein instructing to discard the at least one other PDCP PDU duplicate comprises informing a corresponding radio link control entity not to transmit the at least one other PDCP PDU duplicate.
A lighting apparatus using an organic light-emitting diode, comprising: a substrate having a lighting area, first and second peripheral areas (NA1, NA2), and first and second contact areas (CA1, CA2); a first electrode on the substrate; a first passivation layer on the first electrode; a trench in the peripheral areas (NA1, NA2); an organic emissive layer, a second electrode, and a second passivation layer on the entire surface of the substrate including the first passivation layer, except for an area of the trench, at least a portion of the first contact area and at least a portion of the second contact area; the trench being all around the outer perimeter of the lighting area and separating the organic emissive layer in the lighting area from the organic emissive layer outside the lighting area; an adhesive on the second passivation layer including an inside of the trench; and a metal film on the adhesive in the lighting area and the first and second peripheral areas (NA1, NA2). a substrate having a lighting area, first and second peripheral areas (NA1, NA2), and first and second contact areas (CA1, CA2); a first electrode on the substrate; a first passivation layer on the first electrode; a trench in the peripheral areas (NA1, NA2); an organic emissive layer, a second electrode, and a second passivation layer on the entire surface of the substrate including the first passivation layer, except for an area of the trench, at least a portion of the first contact area and at least a portion of the second contact area; the trench being all around the outer perimeter of the lighting area and separating the organic emissive layer in the lighting area from the organic emissive layer outside the lighting area; an adhesive on the second passivation layer including an inside of the trench; and a metal film on the adhesive in the lighting area and the first and second peripheral areas (NA1, NA2).
An electric kettle comprising: a main body configured to receive water or food therein and provided with a water level window, a lid provided on an open upper side of the main body so as to cover the open upper side of the main body, and a base provided at a lower side of the main body so as to support the main body, wherein the water level window comprises a flow path configured to allow a fluid to flow, and wherein the flow path is fluidly connected to the inside of the main body, wherein the flow path comprises an entrance flow path formed in an upper end part and another entrance flow path formed in a lower end part of the water level window, each of the entrance flow paths connects the flow path formed inside the water level window with the inside of the main body; and wherein in an initial position of the electric kettle the flow path is perpendicular to the ground, and wherein a bottom surface of the flow path has a downward inclination relative to the main body, and wherein a bottom surface of the entrance flow path formed in the lower end part of the water level window is inclined downward in direction toward the main body. a main body configured to receive water or food therein and provided with a water level window, a lid provided on an open upper side of the main body so as to cover the open upper side of the main body, and a base provided at a lower side of the main body so as to support the main body, wherein the water level window comprises a flow path configured to allow a fluid to flow, and wherein the flow path is fluidly connected to the inside of the main body, wherein the flow path comprises an entrance flow path formed in an upper end part and another entrance flow path formed in a lower end part of the water level window, each of the entrance flow paths connects the flow path formed inside the water level window with the inside of the main body; and wherein in an initial position of the electric kettle the flow path is perpendicular to the ground, and wherein a bottom surface of the flow path has a downward inclination relative to the main body, and wherein a bottom surface of the entrance flow path formed in the lower end part of the water level window is inclined downward in direction toward the main body.
A method of allocating time slots (T s1, T s2, T s3) for sensor node sample transmission from sensor nodes (N1, N2, N3, Nn) in a wireless sensor node network, which wireless sensor node network forms part of a control system for controlling an industrial process, wherein the method comprises: receiving (S1-1) a sample of a process variable from a first sensor node in a first time slot (T s1) of a superframe, which first sample has a value outside an accepted range of values, receiving, by a gateway, information from a controller or a network manager concerning the need of a higher sample rate from the first sensor node due to the first sample having a value outside the accepted range of values, obtaining an identification of a second time slot (T s2) of the superframe in which second time slot (T s2) the first sensor node is to send a further sample in a subsequent superframe such that the rate of samples provided to the controller from the first sensor node can be increased, and providing instructions to the first sensor node to send the further sample in the second time slot (T s2) of a subsequent superframe, wherein the gateway is arranged to receive the sample and to provide the sample to a controller arranged to control process variables associated with the sensor nodes (N1, N2, N3, Nn) based on control errors determined by the difference between respective setpoint values and the samples received by the controller. receiving (S1-1) a sample of a process variable from a first sensor node in a first time slot (T s1) of a superframe, which first sample has a value outside an accepted range of values, receiving, by a gateway, information from a controller or a network manager concerning the need of a higher sample rate from the first sensor node due to the first sample having a value outside the accepted range of values, obtaining an identification of a second time slot (T s2) of the superframe in which second time slot (T s2) the first sensor node is to send a further sample in a subsequent superframe such that the rate of samples provided to the controller from the first sensor node can be increased, and providing instructions to the first sensor node to send the further sample in the second time slot (T s2) of a subsequent superframe, wherein the gateway is arranged to receive the sample and to provide the sample to a controller arranged to control process variables associated with the sensor nodes (N1, N2, N3, Nn) based on control errors determined by the difference between respective setpoint values and the samples received by the controller.
A method, comprising: presenting, by an electronic device, a user interface for modifying image data, the image data including headshot image data; receiving, at the user interface, user input indicating selection of a virtual lighting mode; identifying a plurality of landmark points from the headshot image data, each of the plurality of landmark points corresponding to one of a set of pixels of the headshot image data, the plurality of landmark points individually being identified based on depth measurement values associated with the set of pixels; generating a plurality of masks for the headshot image data, each mask corresponding to a set of pixel locations of an area of the headshot image data, and each mask being determined based on the plurality of landmark points; and modifying the headshot image data utilizing a subset of virtual lighting adjustments from a plurality of virtual lighting adjustments on areas of the headshot image data corresponding to the plurality of masks, the subset of virtual lighting adjustments utilized being modified based on the virtual lighting mode selected, and each of the subset of virtual lighting adjustments utilizing a different mask of the plurality of masks, wherein each virtual lighting adjustment corresponds to particular areas of the headshot image data for which luminance or perceived luminance is to be increased or decreased. presenting, by an electronic device, a user interface for modifying image data, the image data including headshot image data; receiving, at the user interface, user input indicating selection of a virtual lighting mode; identifying a plurality of landmark points from the headshot image data, each of the plurality of landmark points corresponding to one of a set of pixels of the headshot image data, the plurality of landmark points individually being identified based on depth measurement values associated with the set of pixels; generating a plurality of masks for the headshot image data, each mask corresponding to a set of pixel locations of an area of the headshot image data, and each mask being determined based on the plurality of landmark points; and modifying the headshot image data utilizing a subset of virtual lighting adjustments from a plurality of virtual lighting adjustments on areas of the headshot image data corresponding to the plurality of masks, the subset of virtual lighting adjustments utilized being modified based on the virtual lighting mode selected, and each of the subset of virtual lighting adjustments utilizing a different mask of the plurality of masks, wherein each virtual lighting adjustment corresponds to particular areas of the headshot image data for which luminance or perceived luminance is to be increased or decreased.
A toner comprising toner particles each comprising a core provided with a conductive surface layer containing a doped electrically conductive polymer, said core comprising a colouring agent, characterised in that an intermediate layer is present between the core and the surface layer and that the intermediate layer is transparent such that the colouring agent of the core effects the colour of the toner particle.
A Network Function node for network slice quota, comprising: means for managing a number of user equipment, UE, registered in a network slice; means for receiving a first request, from a core network node in a core network, for checking availability of the network slice, including information indicating the network slice; means for checking the availability of the network slice in accordance with the number of UE registered in the network slice; and means for sending, to the core network node, a first response to the first request, indicating the availability, wherein the first response causes the core network node to reject a registration procedure for UE based on the number of UE registered in the network slice, wherein, the core network node is included in a visited Public Land Mobile Network, PLMN, wherein the means for receiving are configured to receive an update flag, from the core network node, indicating that the number of UE registered in the network slice is to be decreased, and wherein the Network Function node further comprising means for decreasing the number of UE registered in the network slice based on the update flag. means for managing a number of user equipment, UE, registered in a network slice; means for receiving a first request, from a core network node in a core network, for checking availability of the network slice, including information indicating the network slice; means for checking the availability of the network slice in accordance with the number of UE registered in the network slice; and means for sending, to the core network node, a first response to the first request, indicating the availability, wherein the first response causes the core network node to reject a registration procedure for UE based on the number of UE registered in the network slice, wherein, the core network node is included in a visited Public Land Mobile Network, PLMN, wherein the means for receiving are configured to receive an update flag, from the core network node, indicating that the number of UE registered in the network slice is to be decreased, and wherein the Network Function node further comprising means for decreasing the number of UE registered in the network slice based on the update flag.