mhurhangee/ep-ind-claims huggingface dataset:
A light-emitting device (1, 2) comprising: a substrate; light-emitting elements mounted on the substrate; a first resin frame disposed on the substrate so as to enclose the light-emitting elements; a sealing resin containing a phosphor for converting the wavelength of light emitted from the light-emitting elements, the sealing resin being filled into a region on the substrate enclosed by the first resin frame to seal the light-emitting elements; and a second resin frame (50, 61) being harder than the first resin frame and covering an outer surface of the first resin frame at an outer edge of the substrate, characterized in that the substrate is a planar lead frame configured from first and second metal portions (11, 12) which are spaced apart from each other with an insulating resin interposed therebetween, the light-emitting elements are mounted on the first metal portion and electrically connected by wires to the first and second metal portions (11, 12), and the first resin frame is disposed so that a portion thereof immediately above the insulating resin straddles the first and second metal portions (11, 12). a substrate; light-emitting elements mounted on the substrate; a first resin frame disposed on the substrate so as to enclose the light-emitting elements; a sealing resin containing a phosphor for converting the wavelength of light emitted from the light-emitting elements, the sealing resin being filled into a region on the substrate enclosed by the first resin frame to seal the light-emitting elements; and a second resin frame (50, 61) being harder than the first resin frame and covering an outer surface of the first resin frame at an outer edge of the substrate, characterized in that the substrate is a planar lead frame configured from first and second metal portions (11, 12) which are spaced apart from each other with an insulating resin interposed therebetween, the light-emitting elements are mounted on the first metal portion and electrically connected by wires to the first and second metal portions (11, 12), and the first resin frame is disposed so that a portion thereof immediately above the insulating resin straddles the first and second metal portions (11, 12).
A method of differential measurements of the voltage for capacitive touch sensors in a circuit comprising a sensor line connecting a charge current source, a discharge current source, one or more capacitive touch sensors (S1...Sn) and a port of a control device, wherein the control device controls a switching of the sensor line to a low-state voltage and to a high-state voltage (Vcc), wherein the method comprises the steps: a) the sensor line is cleared by the control device switching it to the low-state voltage; b) the charge current source is activated for a specified time (t_charge); c) a voltage level on the port is read by the control device and is stored as a charge voltage level ( V charge); d) the sensor line is cleared by the control device switching it to the high-state voltage (Vcc); e) the discharge current source is activated for a specified time (t_discharge); f) the voltage level on the port is read by the control device and is stored as a discharge voltage level ( V discharge); g) the control device calculates a value of the difference between the charge voltage level ( V charge) and the discharge voltage level ( V discharge) according to the expression: V dif_abs = V discharge - V charge where V dif_abs is an absolute value of the difference between the charge voltage level and the discharge voltage level; V charge is the charge voltage level; and V discharge is the discharge voltage level. a) the sensor line is cleared by the control device switching it to the low-state voltage; b) the charge current source is activated for a specified time (t_charge); c) a voltage level on the port is read by the control device and is stored as a charge voltage level ( V charge); d) the sensor line is cleared by the control device switching it to the high-state voltage (Vcc); e) the discharge current source is activated for a specified time (t_discharge); f) the voltage level on the port is read by the control device and is stored as a discharge voltage level ( V discharge); g) the control device calculates a value of the difference between the charge voltage level ( V charge) and the discharge voltage level ( V discharge) according to the expression: V dif_abs = V discharge - V charge
A fluxgate comprising a casing containing an electromagnetic assembly for detecting a magnetic field, wherein the electromagnetic assembly is attached to a pendulum suspended from a wall of the casing by an articulation, wherein the casing contains a liquid for damping the movements of the pendulum, characterized in that the pendulum comprises, at the opposite end from the articulation, a surface which is in the shape of a spherical cap and extends facing a wall of the casing that has a form complementary to the form of the surface, defining a space having suitable dimensions to laminate the damping liquid between the surface and the wall when the pendulum moves.
An optical data circuit comprising: an optical-to-electrical conversion circuit configured to produce first and second differential electrical data signals, at respective first and second electrical nodes (P1, N1), in response to an optical data signal; a first digital-to-analog converter, DAC, circuit coupled to the first electrical node and configured to generate a first adjustment signal; and a second DAC circuit coupled to the second electrical node and configured to generate a second adjustment signal; wherein the first and second DAC circuits are configured to adjust the first and second differential electrical data signals such that a zero-crossing point of a positive data signal is pulled up in response to the first adjustment signal and a zero-crossing point of a negative data signal is pulled down in response to the second adjustment signal. an optical-to-electrical conversion circuit configured to produce first and second differential electrical data signals, at respective first and second electrical nodes (P1, N1), in response to an optical data signal; a first digital-to-analog converter, DAC, circuit coupled to the first electrical node and configured to generate a first adjustment signal; and a second DAC circuit coupled to the second electrical node and configured to generate a second adjustment signal; wherein the first and second DAC circuits are configured to adjust the first and second differential electrical data signals such that a zero-crossing point of a positive data signal is pulled up in response to the first adjustment signal and a zero-crossing point of a negative data signal is pulled down in response to the second adjustment signal.
Photovoltaic device for direct conversion of electromagnetic radiation into electrical energy, comprising a) at least one light trap which consists of a transparent material with a higher refractive index than air, the light trap having a planar surface which is orientated towards the incident radiation and a surface which is orientated away from the incident radiation and provided with a prism structure, and the prisms of the prism structure having respectively a first and a second prism surface, b) at least two solar cells (2, 3) which are disposed directly on or optically coupled to at least two prism surfaces (8, 9), characterised in that, on adjacent prism surfaces (8, 9), solar cells (2, 3) with different spectral sensitivity are disposed and, for the angles α 1 and α 2, which the prism surfaces (8, 9) respectively form with the normal to the light incidence surface, there applies: α 1, α 2 ≤ arccos 1 / n with n = refractive index of the material, so that the radiation incident in the light trap after reflection on the prism surfaces (8, 9) is retained in the light trap by total reflection on the planar surface, between at least one prism surface (8, 9) and at least one solar cell (2, 3), at least one spectrally selective structure being disposed, which transmits radiation of the spectral range useable by the solar cell (2, 3) at least partially and reflects radiation of the spectral range which is not useable by the solar cell (2, 3) at least partially, and/or directly on the side which is orientated away from the prism surface (8, 9) of the at least one solar cell (2, 3) and/or on at least one prism surface (8, 9), at least one reflector (4, 7) being disposed at least in regions. a) at least one light trap which consists of a transparent material with a higher refractive index than air, the light trap having a planar surface which is orientated towards the incident radiation and a surface which is orientated away from the incident radiation and provided with a prism structure, and the prisms of the prism structure having respectively a first and a second prism surface, b) at least two solar cells (2, 3) which are disposed directly on or optically coupled to at least two prism surfaces (8, 9),
A method in a first network node for authenticating a communication device, the method comprising: a) recognizing reception (6:10) of a message from the communication device via a second network node, the message initiating an authentication session for the communication device; b) initiating, a roundtrip of said authentication session, comprising a transmission (6:20) of a request comprising state related information to the communication device via the second network node, said state related information being information indicative of the state of the first network node in association with execution of the ongoing roundtrip of said authentication session; c) initiating deletion (6:30) of at least part of stored state related information, associated with said roundtrip of said authentication session, from storage, accessible to the first network node; d) recognizing reception (6:40) of a response to the request from the communication device via the second network node, the response comprising said state related information, associated with said roundtrip of said authentication session; e) initiating a recreation (6:50) of at least part of said state, the recreation being executed based on said received state related information, and f) initiating completion (6:60) of said roundtrip of said authentication session, wherein the completion is based on said at least partly recreated state. a) recognizing reception (6:10) of a message from the communication device via a second network node, the message initiating an authentication session for the communication device; b) initiating, a roundtrip of said authentication session, comprising a transmission (6:20) of a request comprising state related information to the communication device via the second network node, said state related information being information indicative of the state of the first network node in association with execution of the ongoing roundtrip of said authentication session; c) initiating deletion (6:30) of at least part of stored state related information, associated with said roundtrip of said authentication session, from storage, accessible to the first network node; d) recognizing reception (6:40) of a response to the request from the communication device via the second network node, the response comprising said state related information, associated with said roundtrip of said authentication session; e) initiating a recreation (6:50) of at least part of said state, the recreation being executed based on said received state related information, and f) initiating completion (6:60) of said roundtrip of said authentication session, wherein the completion is based on said at least partly recreated state.
A base station for handling communication operations with a communication device, comprising: a storage unit for storing instructions; and a processing means, coupled to the storage unit, configured to execute the instructions stored in the storage unit, wherein the base station is configured for and the storage unit stores instructions of: transmitting at least one configuration of a first type for configuring 32 measurement objects, MeasObjects, to the communication device; transmitting at least one configuration of a second type for configuring at least one MeasObject in addition to the 32 MeasObjects to the communication device, wherein the second type is different from the first type; receiving a measurement result corresponding to one of the 32 MeasObjects from the communication device; and receiving a measurement result corresponding to one of the at least one MeasObject in addition to the 32 MeasObjects from the communication device. a storage unit for storing instructions; and a processing means, coupled to the storage unit, configured to execute the instructions stored in the storage unit, wherein the base station is configured for and the storage unit stores instructions of: transmitting at least one configuration of a first type for configuring 32 measurement objects, MeasObjects, to the communication device; transmitting at least one configuration of a second type for configuring at least one MeasObject in addition to the 32 MeasObjects to the communication device, wherein the second type is different from the first type; receiving a measurement result corresponding to one of the 32 MeasObjects from the communication device; and receiving a measurement result corresponding to one of the at least one MeasObject in addition to the 32 MeasObjects from the communication device. transmitting at least one configuration of a first type for configuring 32 measurement objects, MeasObjects, to the communication device; transmitting at least one configuration of a second type for configuring at least one MeasObject in addition to the 32 MeasObjects to the communication device, wherein the second type is different from the first type; receiving a measurement result corresponding to one of the 32 MeasObjects from the communication device; and receiving a measurement result corresponding to one of the at least one MeasObject in addition to the 32 MeasObjects from the communication device.
Gluing group of the final edge of a log comprising in succession an introducing group into said group of said logs one after the other, an unwinding group of said log associated with means for identifying said final edge, an opening group of said final edge from said log and a glue transfer group on said log, said opening group of said final edge and said glue transfer group being housed in a slide structure that is mobile with respect to said unwinding group by a predetermined amount dependent upon the diameter of said log, with rolling transfer means of said log from said unwinding group to said slide structure being foreseen, characterised in that said rolling transfer means of said log from said unwinding group to said slide structure comprise at least a first and a second free-rolling inclined plane (15', 15") of said log, said first inclined plane comprising an initial end fixedly connected downstream of said unwinding group, said second inclined plane (15") comprising a final end fixedly connected upstream of said opening group, said first and second inclined plane (15', 15") being able to slide one (15") on top of the other during the movement of said slide structure starting from a first position in which they are substantially overlapped up to a second position in which they are only partially overlapped, said unwinding group comprising a pair of rollers (13, 14), top and bottom respectively, to make a passage for said log, said pair of rollers (13, 14) being selectively for advancing and for holding in rotation said log, said initial end of said first inclined plane being associated downstream of said lower unwinding roller.
A flexible electronic circuit for a catheter, comprising: a flexible substrate having a first surface and a second surface opposite the first surface, wherein the first surface includes a recess; a localization element disposed within the recess; and a conductive connector pad disposed on the flexible substrate and conductively coupled to the localization element; wherein the flexible substrate comprises a first portion having a first thickness and a second portion having a second thickness thinner than the first thickness, wherein the recess is positioned within the first portion of the flexible substrate. a flexible substrate having a first surface and a second surface opposite the first surface, wherein the first surface includes a recess; a localization element disposed within the recess; and a conductive connector pad disposed on the flexible substrate and conductively coupled to the localization element; wherein the flexible substrate comprises a first portion having a first thickness and a second portion having a second thickness thinner than the first thickness, wherein the recess is positioned within the first portion of the flexible substrate.
A developer conveyance device comprising: a developer reservoir for containing developer, the developer reservoir having a developer outlet positioned in a bottom portion of the developer reservoir; a nozzle being formed at a lower end of the toner reservoir, the developer reservoir being connected to a conveyance channel via the nozzle. and a positive-displacement pump to alternately generate positive pressure and negative pressure by varying a volume of space therein to transport developer from the developer reservoir to a destination, wherein the conveyance channel connects together the developer reservoir and the pump, and the positive-displacement pump is arranged between the developer reservoir and the destination, characterized in that either Qp>Qd or Qp>Qe is satisfied when Qp represents a volume of developer moved by a single pumping action of the pump, the volume Qp obtained by multiplying a maximum flow amount of the pump per unit time by an operation time of the pump; Qd represents a volume of developer contained in the developer reservoir; and Qe represents a volume of developer present in a virtual columnar space defined by vertically raising the developer outlet to a level of developer contained in the developer reservoir. a developer reservoir for containing developer, the developer reservoir having a developer outlet positioned in a bottom portion of the developer reservoir; a nozzle being formed at a lower end of the toner reservoir, the developer reservoir being connected to a conveyance channel via the nozzle. and a positive-displacement pump to alternately generate positive pressure and negative pressure by varying a volume of space therein to transport developer from the developer reservoir to a destination, wherein the conveyance channel connects together the developer reservoir and the pump, and the positive-displacement pump is arranged between the developer reservoir and the destination, characterized in that either Qp>Qd or Qp>Qe is satisfied when Qp represents a volume of developer moved by a single pumping action of the pump, the volume Qp obtained by multiplying a maximum flow amount of the pump per unit time by an operation time of the pump; Qd represents a volume of developer contained in the developer reservoir; and Qe represents a volume of developer present in a virtual columnar space defined by vertically raising the developer outlet to a level of developer contained in the developer reservoir.
A system comprising: a first illuminator, configured to emit blue light; a second illuminator, configured to emit red light; a camera; a control unit configured to perform: using the first and second illuminators, illuminating one or more fish with pairs of light pulses that each include a pulse of red light and a pulse of blue light; controlling an exposure of the camera to i) generate a first image of one or more of the fish during a pulse of one color of light during an initial pair of light pulses, ii) not generate an image during a pulse of an other color of light during the initial pair of light pulses as well as during one or more succeeding pairs of light pulses, and iii) generate a second image of the one or more of the fish during a pulse of the other color of light during a subsequent pair of light pulses; and determining whether the one or more fish is likely affected by a particular condition based on an analysis of at least the first image and the second image, wherein the particular condition comprises a sea lice infection, an occurrence of a lesion, or a physical deformity. a first illuminator, configured to emit blue light; a second illuminator, configured to emit red light; a camera; a control unit configured to perform: using the first and second illuminators, illuminating one or more fish with pairs of light pulses that each include a pulse of red light and a pulse of blue light; controlling an exposure of the camera to i) generate a first image of one or more of the fish during a pulse of one color of light during an initial pair of light pulses, ii) not generate an image during a pulse of an other color of light during the initial pair of light pulses as well as during one or more succeeding pairs of light pulses, and iii) generate a second image of the one or more of the fish during a pulse of the other color of light during a subsequent pair of light pulses; and determining whether the one or more fish is likely affected by a particular condition based on an analysis of at least the first image and the second image, wherein the particular condition comprises a sea lice infection, an occurrence of a lesion, or a physical deformity. using the first and second illuminators, illuminating one or more fish with pairs of light pulses that each include a pulse of red light and a pulse of blue light; controlling an exposure of the camera to i) generate a first image of one or more of the fish during a pulse of one color of light during an initial pair of light pulses, ii) not generate an image during a pulse of an other color of light during the initial pair of light pulses as well as during one or more succeeding pairs of light pulses, and iii) generate a second image of the one or more of the fish during a pulse of the other color of light during a subsequent pair of light pulses; and determining whether the one or more fish is likely affected by a particular condition based on an analysis of at least the first image and the second image, wherein the particular condition comprises a sea lice infection, an occurrence of a lesion, or a physical deformity.
A Zr-based amorphous alloy represented by the general formula of: (Zr a Al b Cu c Ni d) 100-e-f Y e M f wherein a, b, c, and d are atomic fractions, in which 0.472≤a≤0.568, 0.09≤ b≤0.11, 0.27≤c≤0.33, 0.072≤d≤0.088 and the sum of a, b, c, and d equals to 1; e and f are atomic numbers of elements Y and M respectively, in which 0<e ≤5, and 0.01 ≤f≤5; and M is selected from the group consisting of Nb, Ta, a combination of Nb and Ta, a combination of Sc and Nb, a combination of Sc and Ta, or a combination of Sc, Nb and Ta. wherein a, b, c, and d are atomic fractions, in which 0.472≤a≤0.568, 0.09≤ b≤0.11, 0.27≤c≤0.33, 0.072≤d≤0.088 and the sum of a, b, c, and d equals to 1; e and f are atomic numbers of elements Y and M respectively, in which 0<e ≤5, and 0.01 ≤f≤5; and M is selected from the group consisting of Nb, Ta, a combination of Nb and Ta, a combination of Sc and Nb, a combination of Sc and Ta, or a combination of Sc, Nb and Ta.
Control and switchgear cabinet for a medium-voltage or high-voltage switchgear assembly, with a controller which is installed in a cutout in the switchpanel door and the control panel has a series of interfaces on the outside and on the inside, characterized in that, in order to achieve a maximum variety of individual functional solutions, the controller is uniform, and in that the functionally-related wiring is physically combined in the uniform controller by virtue of the fact that each interface of the controller is connected to its own electronics board, with the elongated interface plugs and/or interface plug couplings running at right angles to the switchpanel door into the switchgear cabinet interior, and with the respective electronics cards associated with the interfaces being inserted vertically.