mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a pre-lamination core, comprising: providing a circuit board having a top surface and a bottom surface; affixing a plurality of circuit components (20a - 20b) onto the top surface of the circuit board; affixing the bottom surface of the circuit board to a bottom cover sheet using an adhesive, wherein the bottom cover sheet comprises a heat seal material attached to a carrier sheet; loading the circuit board and bottom cover sheet into an injection molding apparatus; loading a top cover sheet positioned above a top surface of the circuit board into the injection molding apparatus, wherein the top cover sheet comprises a heat seal material attached to a carrier sheet; injecting a thermosetting polymeric material between the top and bottom cover sheets to form the pre-lamination core; and removing the pre-lamination core from the injection molding apparatus; and separating the carrier sheets from the heat seal materials of the top cover sheet and bottom cover sheet. providing a circuit board having a top surface and a bottom surface; affixing a plurality of circuit components (20a - 20b) onto the top surface of the circuit board; affixing the bottom surface of the circuit board to a bottom cover sheet using an adhesive, wherein the bottom cover sheet comprises a heat seal material attached to a carrier sheet; loading the circuit board and bottom cover sheet into an injection molding apparatus; loading a top cover sheet positioned above a top surface of the circuit board into the injection molding apparatus, wherein the top cover sheet comprises a heat seal material attached to a carrier sheet; injecting a thermosetting polymeric material between the top and bottom cover sheets to form the pre-lamination core; and removing the pre-lamination core from the injection molding apparatus; and separating the carrier sheets from the heat seal materials of the top cover sheet and bottom cover sheet.
A method for removing the insulation from and testing a cable, which comprises at least one conductor enclosed in a conductor insulation, with a stripping device that has a control device and at least one stripping blade (4, 4'), with said method comprising the following steps: a) extending the at least one stripping blade (4, 4') in the transverse direction (y) in a first phase in order to separate the conductor insulation of the cable extending in a longitudinal direction (x), b) displacing the at least one stripping blade (4, 4') relative to the cable in the longitudinal direction (x) parallel to the conductor in a second phase in order to remove the separated conductor insulation, c) detecting at least a first contact of the conductor with the at least one stripping blade (4, 4') in the first phase and in the second phase, characterized in that d) the at least one stripping blade (4, 4') is retracted in the transverse direction (y) upon detection of a contact in order to terminate the contact, e) the motion data for motions in the transverse direction (x) and in the longitudinal direction (y) of the at least one stripping blade (4, 4') at the time of the contact with the conductor is acquired, f) a further path of motions of the at least one stripping blade (4, 4') for the relevant contact with the conductor is determined from the acquired motion data and a corresponding local quality value is optionally formed, and, g) if a local quality value is formed, the local quality value is compared with a quality regulation in order to determine if the quality of the conductor meets the requirements. a) extending the at least one stripping blade (4, 4') in the transverse direction (y) in a first phase in order to separate the conductor insulation of the cable extending in a longitudinal direction (x), b) displacing the at least one stripping blade (4, 4') relative to the cable in the longitudinal direction (x) parallel to the conductor in a second phase in order to remove the separated conductor insulation, c) detecting at least a first contact of the conductor with the at least one stripping blade (4, 4') in the first phase and in the second phase, d) the at least one stripping blade (4, 4') is retracted in the transverse direction (y) upon detection of a contact in order to terminate the contact, e) the motion data for motions in the transverse direction (x) and in the longitudinal direction (y) of the at least one stripping blade (4, 4') at the time of the contact with the conductor is acquired, f) a further path of motions of the at least one stripping blade (4, 4') for the relevant contact with the conductor is determined from the acquired motion data and a corresponding local quality value is optionally formed, and, g) if a local quality value is formed, the local quality value is compared with a quality regulation in order to determine if the quality of the conductor meets the requirements.
Support unit for a conveyor of objects comprising a plurality of support bodies reciprocally pivoted with respect to each other to define a closed ring, suitable to transport in suspension the objects that are disposed attached thereon and suitable to slide in a guide of said conveyor along a closed path, said support bodies each being provided with at least a flat plate and with at least an anchoring base solidly associated to said plate and suitable to support sliding means (35, 36) suitable to slide on said guide, each plate is provided with opposite pivoting ends configured to pivot, by means of pivoting means, with respective pivoting ends of an adjacent plate which follows and respectively which precedes so as to define the reciprocal connection between said support bodies characterized in that each plate is made of an elastically flexible material at least with respect to its thickness, to adapt to curves defined by said guide.
A pillow system, comprising: a head pillow having a top end, a bottom end, and a connector disposed at the bottom end, said head pillow having a head region and a neck region; a leg pillow having a top end, a bottom end, and sides (64, 66) extending between the top end and the bottom end, a top connector at the top end, and a side connector at one of the sides (64,66), wherein the connector of the head pillow is configured to be coupled to the top connector of the leg pillow, said leg pillow having a straight upper section at the top end and a leg section; a torso pillow having a top end, a bottom end and two sides (44, 46), and a connector disposed at one of the sides (44, 46), wherein the connector of the torso pillow is configured to be coupled to the side connector of the leg pillow, characterized in that when the connector of the head pillow is coupled with the top connector of the leg pillow, the head pillow and leg pillow form a C shape having two ends and a central part, the head region and the leg section form the two ends of the C and the upper section of leg pillow form the central part of the C, wherein the torso pillow sits within the center of the C shaped configuration formed by head pillow and leg pillow. a head pillow having a top end, a bottom end, and a connector disposed at the bottom end, said head pillow having a head region and a neck region; a leg pillow having a top end, a bottom end, and sides (64, 66) extending between the top end and the bottom end, a top connector at the top end, and a side connector at one of the sides (64,66), wherein the connector of the head pillow is configured to be coupled to the top connector of the leg pillow, said leg pillow having a straight upper section at the top end and a leg section; a torso pillow having a top end, a bottom end and two sides (44, 46), and a connector disposed at one of the sides (44, 46), wherein the connector of the torso pillow is configured to be coupled to the side connector of the leg pillow,
A motor management system for a multiphase induction motor, comprising: a power supply configured to provide power to the induction motor; a controller connected to the power supply and configured to control the power provided to the induction motor by the power supply; and characterized by an overload protection device connected to the power supply and configured to calculate a positive phase sequence current magnitude and a negative phase sequence current magnitude from the power provided to the induction motor during a startup interval of the induction motor; wherein the overload protection device is further configured to remove the power provided to the induction motor based on a ratio of the positive phase sequence current magnitude to the negative phase sequence current magnitude; and wherein the overload protection device removes the power provided to the induction motor if the ratio remains substantially unchanged from a ratio of a previously derived positive phase sequence current magnitude to a previously derived negative phase sequence current magnitude during the startup interval. a power supply configured to provide power to the induction motor; a controller connected to the power supply and configured to control the power provided to the induction motor by the power supply; and characterized by an overload protection device connected to the power supply and configured to calculate a positive phase sequence current magnitude and a negative phase sequence current magnitude from the power provided to the induction motor during a startup interval of the induction motor; wherein the overload protection device is further configured to remove the power provided to the induction motor based on a ratio of the positive phase sequence current magnitude to the negative phase sequence current magnitude; and wherein the overload protection device removes the power provided to the induction motor if the ratio remains substantially unchanged from a ratio of a previously derived positive phase sequence current magnitude to a previously derived negative phase sequence current magnitude during the startup interval.
A minicircle comprising at least one packaging expression cassette, wherein at least one protein necessary for the packaging of the transfer sequence into viral vector particles is encoded and can be expressed on said at least one packaging expression cassette, wherein the minicircle is circular double-stranded DNA, which is free of antibiotic resistance genes and bacterial origins of replication.
A light emitting element driving device (10, 13, 16) arranged to drive a series connection unit including a plurality of light emitting elements (Z1-Z3), comprising: a) a power element (1H, 1L); b) a plurality of single-element short-circuit detection unit (5A-5C); and c) a control unit arranged to control the power element (1H, 1L) to supply current to the series connection unit of light emitting elements wherein d) each of the plurality of single-element short-circuit detection units (5A-5C) is arranged for detecting that a corresponding one of the plurality of light emitting elements is short-circuited, and e) the control unit is arranged to control the power element so that current supplied from the light emitting element driving device to the series connection unit is increased, when at least one of the plurality of single-element short-circuit detection units (5A-5C) detects a short circuit, characterised in that f) each of the plurality of single-element short-circuit detection units (5A-5C) is connected in parallel with a respective one of the plurality of light emitting elements (Z1-Z3). a) a power element (1H, 1L); b) a plurality of single-element short-circuit detection unit (5A-5C); and c) a control unit arranged to control the power element (1H, 1L) to supply current to the series connection unit of light emitting elements wherein d) each of the plurality of single-element short-circuit detection units (5A-5C) is arranged for detecting that a corresponding one of the plurality of light emitting elements is short-circuited, and e) the control unit is arranged to control the power element so that current supplied from the light emitting element driving device to the series connection unit is increased, when at least one of the plurality of single-element short-circuit detection units (5A-5C) detects a short circuit, characterised in that f) each of the plurality of single-element short-circuit detection units (5A-5C) is connected in parallel with a respective one of the plurality of light emitting elements (Z1-Z3).
A method, performed by a user equipment, for redirecting the user equipment, UE, from a first network to a second network, comprising: sending a message to a wireless access point of the first network, wherein the first network is a neutral host, NH, network, and wherein the message includes a public land mobile network identifier, PLMN ID, of the second network, and wherein the second network is one of one or more mobile network operator, MNO, networks available in a region, wherein the message comprises a UE capability information message, and wherein the UE capability information message includes band information of the second network, wherein the band information at least comprises the bands on which the MNO networks operate in this region; and receiving a redirection message from the wireless access point of the first network that redirects the UE from the first network to the second network, wherein the redirection message is based on the PLMN ID and/or band information included in the message. sending a message to a wireless access point of the first network, wherein the first network is a neutral host, NH, network, and wherein the message includes a public land mobile network identifier, PLMN ID, of the second network, and wherein the second network is one of one or more mobile network operator, MNO, networks available in a region, wherein the message comprises a UE capability information message, and wherein the UE capability information message includes band information of the second network, wherein the band information at least comprises the bands on which the MNO networks operate in this region; and receiving a redirection message from the wireless access point of the first network that redirects the UE from the first network to the second network, wherein the redirection message is based on the PLMN ID and/or band information included in the message.
A process to produce a supported chromium catalyst, the process comprising: (i) combining a chromium compound with an activator-support comprising a solid oxide treated with an electron-withdrawing anion to form a mixture; and (ii) subjecting the mixture to an inert or reducing atmosphere at a peak temperature to produce the supported chromium catalyst, wherein: the chromium compound comprises chromium formate, chromium acetate, chromium propionate, chromium butyrate, chromium pentanoate, chromium neopentanoate, chromium hexanoate, chromium 2-ethylhexanoate, chromium benzoate, chromium naphthenate, chromium oleate, chromium oxalate, chromium acetylacetonate, chromium stearate, chromium laurate, or any combination thereof; and the activator-support comprises fluorided alumina, chlorided alumina, bromided alumina, sulfated alumina, fluorided silica-alumina, chlorided silica-alumina, bromided silica-alumina, sulfated silica-alumina, fluorided silica-zirconia, chlorided silica-zirconia, bromided silica-zirconia, sulfated silica-zirconia, fluorided silica-titania, fluorided silica-coated alumina, sulfated silica-coated alumina, phosphated silica-coated alumina, or any combination thereof. (i) combining a chromium compound with an activator-support comprising a solid oxide treated with an electron-withdrawing anion to form a mixture; and (ii) subjecting the mixture to an inert or reducing atmosphere at a peak temperature to produce the supported chromium catalyst, wherein: the chromium compound comprises chromium formate, chromium acetate, chromium propionate, chromium butyrate, chromium pentanoate, chromium neopentanoate, chromium hexanoate, chromium 2-ethylhexanoate, chromium benzoate, chromium naphthenate, chromium oleate, chromium oxalate, chromium acetylacetonate, chromium stearate, chromium laurate, or any combination thereof; and the activator-support comprises fluorided alumina, chlorided alumina, bromided alumina, sulfated alumina, fluorided silica-alumina, chlorided silica-alumina, bromided silica-alumina, sulfated silica-alumina, fluorided silica-zirconia, chlorided silica-zirconia, bromided silica-zirconia, sulfated silica-zirconia, fluorided silica-titania, fluorided silica-coated alumina, sulfated silica-coated alumina, phosphated silica-coated alumina, or any combination thereof. the chromium compound comprises chromium formate, chromium acetate, chromium propionate, chromium butyrate, chromium pentanoate, chromium neopentanoate, chromium hexanoate, chromium 2-ethylhexanoate, chromium benzoate, chromium naphthenate, chromium oleate, chromium oxalate, chromium acetylacetonate, chromium stearate, chromium laurate, or any combination thereof; and the activator-support comprises fluorided alumina, chlorided alumina, bromided alumina, sulfated alumina, fluorided silica-alumina, chlorided silica-alumina, bromided silica-alumina, sulfated silica-alumina, fluorided silica-zirconia, chlorided silica-zirconia, bromided silica-zirconia, sulfated silica-zirconia, fluorided silica-titania, fluorided silica-coated alumina, sulfated silica-coated alumina, phosphated silica-coated alumina, or any combination thereof.
A system for indoor tracking of mobile units comprising - a monitoring and control element for processing tracking data of mobile units, - a transmitter for transmitting the tracking data via a communication link to the monitoring and control element, and - a network of sensors, wherein each sensor is adapted to communicate with mobile units located within a monitoring area of the sensor and to route tracking data of mobile units over other sensors located in its neighborhood to the transmitter according to routing data comprising a routing table with routes in the network of sensors to the transmitter, wherein the routing table is generated upon installation of the network of sensors and comprises unique identifiers of sensors neighbored to the sensor storing the routing table, wherein the tracking data routed from a sensor to the transmitter comprises at least positioning data from sensor data and positioning data, wherein the sensor data comprises a unique identification of the sensor being the origin of the route of the tracking data and the positioning data comprise a stored installation position of the sensor being the origin of the route of the tracking data. - a monitoring and control element for processing tracking data of mobile units, - a transmitter for transmitting the tracking data via a communication link to the monitoring and control element, and - a network of sensors, wherein each sensor is adapted to communicate with mobile units located within a monitoring area of the sensor and to route tracking data of mobile units over other sensors located in its neighborhood to the transmitter according to routing data comprising a routing table with routes in the network of sensors to the transmitter, wherein the routing table is generated upon installation of the network of sensors and comprises unique identifiers of sensors neighbored to the sensor storing the routing table, wherein the tracking data routed from a sensor to the transmitter comprises at least positioning data from sensor data and positioning data, wherein the sensor data comprises a unique identification of the sensor being the origin of the route of the tracking data and the positioning data comprise a stored installation position of the sensor being the origin of the route of the tracking data.
A handheld vacuum cleaner comprising: a handle by which the vacuum cleaner is supported during normal use; a cyclonic separating unit having a longitudinal axis and a dirt collector at one end of the cyclonic separating unit, the cyclonic separating unit comprising an end portion having a closed configuration in which dirt is retained within the dirt collector by the end portion and an open configuration for the removal of dirt from the dirt collector, wherein the handle has a pistol grip configuration in which the handle is inclined with respect to the cyclonic separating unit to form an angle of not less than 85 degrees and not greater than 140 degrees between the handle and the longitudinal axis of the cyclonic separating unit, characterized in that the longitudinal axis of the cyclonic separating unit extends in a plane which is located above the handle. a handle by which the vacuum cleaner is supported during normal use; a cyclonic separating unit having a longitudinal axis and a dirt collector at one end of the cyclonic separating unit, the cyclonic separating unit comprising an end portion having a closed configuration in which dirt is retained within the dirt collector by the end portion and an open configuration for the removal of dirt from the dirt collector, wherein the handle has a pistol grip configuration in which the handle is inclined with respect to the cyclonic separating unit to form an angle of not less than 85 degrees and not greater than 140 degrees between the handle and the longitudinal axis of the cyclonic separating unit, characterized in that the longitudinal axis of the cyclonic separating unit extends in a plane which is located above the handle.
Tube connection device for connecting a resilient, flexible tube to a dimensionally stable connecting piece, comprising at least one first coupling element which has interlocking means and is intended for interlocking coupling to the connecting piece, and an annular support body which circumferentially supports the coupling element, the interlocking means extending radially on the inside of the annular support body, and the annular support body being adapted for fastening to the flexible tube, characterised in that a plurality of individual coupling elements are distributed over the circumference of the annular support body and interconnected by means of the annular support body.
An inductive sensor, wherein an annular shielding coil (2.12, 2.13) is additionally arranged outside an annular detection coil (2.2, 2.3), the shielding coil surrounds the detection coil, and the radial thickness of the shielding coil is smaller than that of the detection coil; the magnetic field generated by the shielding coil and the magnetic field generated by the detection coil are opposite in direction and partially offset, and the magnetic fields are attenuated or increased at the same time, such that the overlapped magnetic field strength can be kept constant, characterized in that a housing (1.1) of the sensor is cylindrical, the detection coil is wound on a plastic pipe (1.10), and an insulating material is filled between the detection coil and the shielding coil, at least two annular detection coils which are successively arranged along an axial direction of the housing are provided inside the housing, an annular shielding coil at least surrounds each detection coil; the radial thickness of the shielding coil is smaller that of the detection coil, and the sensor further comprises a testing circuit; the testing circuit comprises resonant circuits, voltage dividing circuits, a shielding circuit and a differential amplifying circuit; the two detection coils are respectively connected in series with a resonant capacitor (2.6, 2.7) to form the resonant circuits and are then connected in parallel to the output end of a voltage source; the two groups of resonant circuits are identical in resonant frequency; the two groups of resonant voltages generated by the resonant circuits are respectively divided by the voltage dividing circuits having the same voltage division ratio, and are then connected to positive and negative input ends of the differential amplifying circuit; the two shielding coils are connected to the positive and negative input ends of the differential amplifying circuit respectively via a Voltage follower (2.14) to form the shielding circuit; a ratio of the number of turns of the detection coil to the number of turns of the shielding coil surrounding the detection coil is proportional to the voltage division ratio of the voltage dividing circuit.