mhurhangee/ep-ind-claims huggingface dataset:
A composition comprising the following: A) a first polymer composition comprising an anhydride functionalized ethylene-based polymer, and optionally, an ethylene-based polymer; B) a filler; and wherein the anhydride functionalized ethylene-based polymer has a density from 0.855 g/cc to 0.900 g/cc, a melt viscosity, at 177°C, from 1000 to 50,000 cP, and a melt index greater than 500 g/10 min to less than, or equal to, 1500 g/10 min; wherein the composition comprises from 1.0 wt% to 75.0 wt% of the anhydride functionalized ethylene-based polymer, based on the weight of the composition. A) a first polymer composition comprising an anhydride functionalized ethylene-based polymer, and optionally, an ethylene-based polymer; B) a filler; and
Method of marking a container for identification purpose for medical or diagnostic use, intended to hold a product of interest, the method comprising at least the following steps: a two-dimensional or three-dimensional marking zone, the temperature of which is maintained at a first temperature, is provided in or on the substrate of a blank intended to constitute the said container and, in the said marking zone, an identification code is reproduced by illumination of the said marking zone with at least one beam of coherent monochromatic localized electromagnetic radiation to which the substrate is at least partially transparent, the said beam being operated and controlled in order to remove or modify the constituent substrate of the wall and to leave the identification code, in positive or negative form, in the said wall so that the said code is readable; and at least the said marking zone is annealed by heating it to a second temperature strictly above the said first temperature so as at least to reduce the differences in internal tension in the substrate between the said marking zone and the rest of the said wall. a two-dimensional or three-dimensional marking zone, the temperature of which is maintained at a first temperature, is provided in or on the substrate of a blank intended to constitute the said container and, in the said marking zone, an identification code is reproduced by illumination of the said marking zone with at least one beam of coherent monochromatic localized electromagnetic radiation to which the substrate is at least partially transparent, the said beam being operated and controlled in order to remove or modify the constituent substrate of the wall and to leave the identification code, in positive or negative form, in the said wall so that the said code is readable; and at least the said marking zone is annealed by heating it to a second temperature strictly above the said first temperature so as at least to reduce the differences in internal tension in the substrate between the said marking zone and the rest of the said wall.
A power supply system having an input node and an output node, comprising: a regulator circuit responsive to an input signal (V IN) at the input node for producing an output signal (V OUT) at the output node at a desired level, and having a controller, an inductive element and a first switch coupled to the inductor element and controlled by the controller to produce the output signal (V OUT), and a Coulomb counter for producing a Coulomb count signal proportional to the number of Coulombs passing from the input node to the output node, and characterized in that the Coulomb counter is enabled by an enabling signal representing a predetermined time period, for determining the number of Coulombs passing from the input node to the output node during the predetermined time period. a regulator circuit responsive to an input signal (V IN) at the input node for producing an output signal (V OUT) at the output node at a desired level, and having a controller, an inductive element and a first switch coupled to the inductor element and controlled by the controller to produce the output signal (V OUT), and a Coulomb counter for producing a Coulomb count signal proportional to the number of Coulombs passing from the input node to the output node, and characterized in that the Coulomb counter is enabled by an enabling signal representing a predetermined time period, for determining the number of Coulombs passing from the input node to the output node during the predetermined time period.
A method of processing data for a HARQ, Hybrid Automatic Repeat reQuest, operation in a terminal of a 3GPP wireless communication system, the method comprising: receiving a control signaling from a network; receiving a data based on the received control signaling; starting a Time Alignment Timer, TAT, when a Timing Advance Command, TAC, is received, wherein the TAC is time alignment information for an uplink time alignment; decoding the received data; and generating a positive response message, ACK, if the received data is successfully decoded or a negative response message, NACK, if the received data is not successfully decoded, wherein the generated positive response message, ACK, or generated negative response message, NACK, is not transmitted to the network when the TAT is expired or stopped. receiving a control signaling from a network; receiving a data based on the received control signaling; starting a Time Alignment Timer, TAT, when a Timing Advance Command, TAC, is received, wherein the TAC is time alignment information for an uplink time alignment; decoding the received data; and generating a positive response message, ACK, if the received data is successfully decoded or a negative response message, NACK, if the received data is not successfully decoded, wherein the generated positive response message, ACK, or generated negative response message, NACK, is not transmitted to the network when the TAT is expired or stopped.
A coin image acquisition device (10, 11, 12, 13) that is configured to acquire an image of a coin, the coin image acquisition device (10, 11, 12, 13) comprising: a light source unit (20, 120) configured to emit light; and an imaging unit configured to capture a reflected image of a coin irradiated with light from the light source unit (20, 120), the light source unit (20, 120) including a plurality of light-emitting elements disposed in an annular shape and a condensing unit (22, 122, 222, 322, 422) configured to collect light from the light-emitting elements, the condensing unit (22, 122, 222, 322, 422) including a plurality of lenses (22a, 122a, 222a, 322a, 322a', 422a) disposed in an annular shape correspondingly to the respective light-emitting elements, the lenses being on an annular base, each of the lenses (22a, 122a, 222a, 322a, 322a', 422a) having a lower degree of condensation in a circumferential direction of the annular shape than in a radial direction of the annular shape, the condensing unit (22, 122, 222, 322, 422) having a lower degree of condensation in the circumferential direction of the annular shape than in the radial direction of the annular shape, wherein the lenses (22a, 122a, 222a, 322a, 322a', 422a) in the condensing unit are integrally connected via the base, wherein the plurality of light-emitting elements are disposed under the base and the lenses are disposed correspondingly to the respective light-emitting elements under the base. a light source unit (20, 120) configured to emit light; and an imaging unit configured to capture a reflected image of a coin irradiated with light from the light source unit (20, 120), the light source unit (20, 120) including a plurality of light-emitting elements disposed in an annular shape and a condensing unit (22, 122, 222, 322, 422) configured to collect light from the light-emitting elements, the condensing unit (22, 122, 222, 322, 422) including a plurality of lenses (22a, 122a, 222a, 322a, 322a', 422a) disposed in an annular shape correspondingly to the respective light-emitting elements, the lenses being on an annular base, each of the lenses (22a, 122a, 222a, 322a, 322a', 422a) having a lower degree of condensation in a circumferential direction of the annular shape than in a radial direction of the annular shape, the condensing unit (22, 122, 222, 322, 422) having a lower degree of condensation in the circumferential direction of the annular shape than in the radial direction of the annular shape, wherein the lenses (22a, 122a, 222a, 322a, 322a', 422a) in the condensing unit are integrally connected via the base, wherein the plurality of light-emitting elements are disposed under the base and the lenses are disposed correspondingly to the respective light-emitting elements under the base.
An oven comprising: a cooking chamber configured to receive a food product; and a radio frequency heating system configured to provide RF energy into the cooking chamber using solid state electronic components to heat the food product, wherein the solid state electronic components include power amplifier electronics and control electronics configured to control operation of the power amplifier electronics, the power amplifier electronics being configured to provide a signal into the cooking chamber via a launcher assembly operably coupled to the cooking chamber via a waveguide assembly, wherein the power amplifier electronics are configured to control application of RF energy into the cooking chamber according to a cooking recipe at least in part based on a learning procedure that generates a power cycling between high and low powers when the learning procedure is executed, and characterized in that the control electronics are configured to employ a thermal stress mitigation technique to control thermal stresses on the power amplifier electronics associated with the power cycling. a cooking chamber configured to receive a food product; and a radio frequency heating system configured to provide RF energy into the cooking chamber using solid state electronic components to heat the food product, wherein the solid state electronic components include power amplifier electronics and control electronics configured to control operation of the power amplifier electronics, the power amplifier electronics being configured to provide a signal into the cooking chamber via a launcher assembly operably coupled to the cooking chamber via a waveguide assembly, wherein the power amplifier electronics are configured to control application of RF energy into the cooking chamber according to a cooking recipe at least in part based on a learning procedure that generates a power cycling between high and low powers when the learning procedure is executed, and characterized in that the control electronics are configured to employ a thermal stress mitigation technique to control thermal stresses on the power amplifier electronics associated with the power cycling.
Chitosan-nanoclay nanocomposite controlled release system comprising essential oil and nanoclay, for use in the local treatment of infection caused by Helicobacter pylori.
A device for setting skin tension, in particular for use in a musical instrument such as a kettledrum, comprising a tensioning star provided with an engaging element for engaging an operating mechanism for adjusting the tensioning star in an axial adjusting direction, substantially parallel to a central axis of the tensioning star, and provided with a plurality of arms (31a, 31b, 31c) extending in substantially radial directions (R1, R2, R3), of which at least a part is provided with a coupling element (30a, 30b, 30c) for coupling to a tensioning rod construction attachable to the skin, characterized in that it further comprises an adjusting device for adjusting the distance between the coupling element (30a, 30b, 30c) and the central axis of the tensioning star.
A method for generating a message for transmission in a system that requires the message to be run length limited RLL to a maximum run of n consecutive first binary states by bit-stuffing, the method comprising: coding at least a data portion of a binary sequence for transmission using a forward error correction FEC code to generate a FEC coded portion of the binary sequence; bit erasing one or more bits in at least the FEC coded portion of the binary sequence to compensate for a run of n first binary states in the FEC coded portion of the binary sequence, wherein the bit-erasing step implements selective bit erasing, wherein if the next bit after the run of n first binary states in the FEC coded portion of the binary sequence is equal to the first binary state, the n th bit of the run of n first binary states is set to the second binary state and if the next bit after the run of n first binary states in the FEC coded portion of the binary sequence is equal to the second binary state, then the next bit after the run of n first binary states is removed from the FEC coded portion of the binary sequence; bit stuffing the selective bit erased FEC coded portion of the binary sequence, wherein bit-stuffing comprises insertion of the second binary state after a run of n first binary states; and providing the binary sequence comprising the bit stuffed and selective bit erased FEC coded portion to a transmitter for modulation and subsequent transmission as a message, wherein the selective bit erasing ensures that the length of the FEC coded portion of the binary sequence after bit stuffing is the same as before selective bit erasing and bit stuffing. coding at least a data portion of a binary sequence for transmission using a forward error correction FEC code to generate a FEC coded portion of the binary sequence; bit erasing one or more bits in at least the FEC coded portion of the binary sequence to compensate for a run of n first binary states in the FEC coded portion of the binary sequence, wherein the bit-erasing step implements selective bit erasing, wherein if the next bit after the run of n first binary states in the FEC coded portion of the binary sequence is equal to the first binary state, the n th bit of the run of n first binary states is set to the second binary state and if the next bit after the run of n first binary states in the FEC coded portion of the binary sequence is equal to the second binary state, then the next bit after the run of n first binary states is removed from the FEC coded portion of the binary sequence; bit stuffing the selective bit erased FEC coded portion of the binary sequence, wherein bit-stuffing comprises insertion of the second binary state after a run of n first binary states; and providing the binary sequence comprising the bit stuffed and selective bit erased FEC coded portion to a transmitter for modulation and subsequent transmission as a message, wherein the selective bit erasing ensures that the length of the FEC coded portion of the binary sequence after bit stuffing is the same as before selective bit erasing and bit stuffing.
A noise suppression cable, comprising: a plurality of insulated wires comprising a first conductor and a first insulation covering the first conductor; and one or a plurality of drain wires comprising a second conductor, a second insulation covering the second conductor, said noise suppression cable being characterized in that the one or a plurality of drain wires further comprises a magnetic material layer around the second insulation. a plurality of insulated wires comprising a first conductor and a first insulation covering the first conductor; and one or a plurality of drain wires comprising a second conductor, a second insulation covering the second conductor, said noise suppression cable being characterized in that the one or a plurality of drain wires further comprises a magnetic material layer around the second insulation.
A protective cap for application on a medical device such as a medical vial, said protective cap comprising a membrane holder having a first end with an end wall, said end wall having an outer surface and an inner surface and a second end with an end opening at a distance from said first end, said second end being adapted to be placed over a receiving portion of said medical device and being provided with connection means for connecting said protective cap to said medical device, said end wall of said membrane holder having a piercing opening said piercing opening having a peripheral edge, wherein a resilient membrane is arranged to cover said piercing opening, said resilient membrane comprising a piercing portion and a sealing portion, said piercing portion of said resilient membrane extending through said piercing opening,,said membrane holder comprising attachment means for attaching said resilient membrane to said membrane holder, said resilient membrane being attached in said membrane holder with said piercing portion of said resilient membrane exposed through said piercing opening in said end wall of said membrane holder and with said sealing portion of said resilient membrane arranged to be brought into sealing contact with said receiving portion of said medical device when said protective cap is applied to said medical device, characterized in that said sealing portion of said membrane extends past said peripheral edge of said piercing opening on said inner surface of said end wall of said membrane holder and in that said attachment means is an adhesive attachment means or a mechanical attachment means or a combination of an adhesive attachment means and a mechanical attachment means.
An epoxy resin composition comprising a first epoxy resin component containing an oxazolidone; a second epoxy resin component; dicyandiamide particles having a particle distribution in which 98 percent of the dicyandiamide particles have a diameter less than 10 microns, and at least 35% of the dicyandiamide particles have a particle size of less than 2 microns; and an epoxy soluble latent catalyst.
A method for the detection of an IgM antibody specific for a flavivirus in a sample, comprising the steps of (a) contacting the sample with a solid support comprising immobilised IgM-binding molecules, (b) allowing binding of IgM antibodies in the sample to the IgM binding molecules on the solid support so that the IgM antibodies are also immobilised on the solid support, and (c) premixing an antiparallel dimer of soluble flavivirus Protein E (sE) with a marker for formation of a complex comprising the sE dimer and the marker, wherein the antiparallel dimer of sE comprises a tag and wherein the tag links the marker to the antiparallel dimer of sE, and (d) detecting IgM antibodies specific for a flavivirus by allowing binding of the preformed complex and identifying the binding of the complex to the specific flavivirus IgM antibody by detecting the marker. (a) contacting the sample with a solid support comprising immobilised IgM-binding molecules, (b) allowing binding of IgM antibodies in the sample to the IgM binding molecules on the solid support so that the IgM antibodies are also immobilised on the solid support, and (c) premixing an antiparallel dimer of soluble flavivirus Protein E (sE) with a marker for formation of a complex comprising the sE dimer and the marker, wherein the antiparallel dimer of sE comprises a tag and wherein the tag links the marker to the antiparallel dimer of sE, and (d) detecting IgM antibodies specific for a flavivirus by allowing binding of the preformed complex
Emergency operating device for a door device for a vehicle, the emergency operating device having the following features: a locking lever, which can be tilted between a release position and a locking position, the locking lever having an operating end; at least one position switch with a sensor movable between a first position and a second position and with a signal input for reading in a blocking signal and with a signal output for providing a locking signal using the blocking signal and the position of the sensor; an operating element movable from a home position via an intermediate position into an unlocking position for the manual operation of the door device, the operating element having a switch contour formed to move the sensor between the first position and the second position: a blocking device designed to block a movement of the operating element into the unlocking position if the locking lever is in the locking position and to enable the movement of the operating element beyond the intermediate position into the unlocking position if the locking lever is in the release position; and a holding device designed to generate, controlled by the locking signal, a magnetic field for holding the locking lever in the locking position. a locking lever, which can be tilted between a release position and a locking position, the locking lever having an operating end; at least one position switch with a sensor movable between a first position and a second position and with a signal input for reading in a blocking signal and with a signal output for providing a locking signal using the blocking signal and the position of the sensor; an operating element movable from a home position via an intermediate position into an unlocking position for the manual operation of the door device, the operating element having a switch contour formed to move the sensor between the first position and the second position: a blocking device designed to block a movement of the operating element into the unlocking position if the locking lever is in the locking position and to enable the movement of the operating element beyond the intermediate position into the unlocking position if the locking lever is in the release position; and a holding device designed to generate, controlled by the locking signal, a magnetic field for holding the locking lever in the locking position. a blocking device designed to block a movement of the operating element into the unlocking position if the locking lever is in the locking position and to enable the movement of the operating element beyond the intermediate position into the unlocking position if the locking lever is in the release position; and a holding device designed to generate, controlled by the locking signal, a magnetic field for holding the locking lever in the locking position.