mhurhangee/ep-ind-claims huggingface dataset:
A metallocene catalysed multimodal copolymer of ethylene with at least two different comonomers selected from alpha-olefins having from 4 to 10 carbon atoms, which consists of (i) 30.0 to 70.0 wt%, based on the multimodal copolymer, of an ethylene polymer component, comprising ethylene polymer fraction (A-1) and ethylene polymer fraction (A-2) and (ii) 70.0 to 30.0 wt%, based on the multimodal copolymer, of an ethylene polymer component, whereby the ethylene polymer component has a density in the range of from 920 to 950 kg/m 3 and an MFR 2 (190°C, 2.16 kg, ISO 1133) in the range of from 2.0 to 40.0 g/10 min; the ethylene polymer fraction (A-1) has a density in the range of from 928 to 945 kg/m 3 and an MFR 2 (190°C, 2.16 kg, ISO 1133) in the range of from 0.1 to 5.0 g/10 min; the ethylene polymer fraction (A-2) having a density in the range of from 935 to 952 kg/m 3 and an MFR 2 and (190°C, 2.16 kg, ISO 1133) in the range of from 3.0 to 200.0 g/10 min; and the ethylene polymer component has • a density in the range of from 880 to 915 kg/m 3 and an MFR 2 (190°C, 2.16 kg, ISO 1133) in the range of from 0.01 to 1.0 g/10 min; and whereby the multimodal copolymer has • a density in the range of from 910 to 930 kg/m 3 and an MFR 2 (190°C, 2.16 kg, ISO 1133) in the range of from 1.0 to 2.0 g/10 min and • a ratio of the MFR 2 of ethylene polymer component to the MFR 2 of the multimodal copolymer of 5.5 up to 15.0. (i) 30.0 to 70.0 wt%, based on the multimodal copolymer, of an ethylene polymer component, comprising ethylene polymer fraction (A-1) and ethylene polymer fraction (A-2) and (ii) 70.0 to 30.0 wt%, based on the multimodal copolymer, of an ethylene polymer component, whereby the ethylene polymer component has a density in the range of from 920 to 950 kg/m 3 and an MFR 2 (190°C, 2.16 kg, ISO 1133) in the range of from 2.0 to 40.0 g/10 min; the ethylene polymer fraction (A-1) has a density in the range of from 928 to 945 kg/m 3 and an MFR 2 (190°C, 2.16 kg, ISO 1133) in the range of from 0.1 to 5.0 g/10 min; the ethylene polymer fraction (A-2) having a density in the range of from 935 to 952 kg/m 3 and an MFR 2 and (190°C, 2.16 kg, ISO 1133) in the range of from 3.0 to 200.0 g/10 min; and the ethylene polymer component has • a density in the range of from 880 to 915 kg/m 3 and an MFR 2 (190°C, 2.16 kg, ISO 1133) in the range of from 0.01 to 1.0 g/10 min; and • a density in the range of from 880 to 915 kg/m 3 and an MFR 2 (190°C, 2.16 kg, ISO 1133) in the range of from 0.01 to 1.0 g/10 min; and whereby the multimodal copolymer has • a density in the range of from 910 to 930 kg/m 3 and an MFR 2 (190°C, 2.16 kg, ISO 1133) in the range of from 1.0 to 2.0 g/10 min and • a ratio of the MFR 2 of ethylene polymer component to the MFR 2 of the multimodal copolymer of 5.5 up to 15.0. • a density in the range of from 910 to 930 kg/m 3 and an MFR 2 (190°C, 2.16 kg, ISO 1133) in the range of from 1.0 to 2.0 g/10 min and • a ratio of the MFR 2 of ethylene polymer component to the MFR 2 of the multimodal copolymer of 5.5 up to 15.0.
A gate drive circuit for generating asymmetric drive voltages, the gate drive circuit comprising; a gate drive transformer comprising: a primary winding responsive to a pulse width modulated 'PWM' input signal; and a first secondary winding and a second secondary winding responsive to a PWM output signal of the primary winding, the first secondary winding including a first turn ratio different from a second turn ratio of the second secondary winding, the first secondary winding producing a first bias voltage (V ON) and the second secondary winding producing a second bias voltage (V OFF); a first additional secondary winding and a second additional secondary winding, wherein the first additional secondary winding and the second additional secondary winding are responsive to the PWM output signal of the primary winding, the first additional secondary winding producing a first voltage (V 3) and the second additional secondary winding producing a second voltage (V 4); a first drive transistor having a gate and a source electrically coupled to the first additional secondary winding and coupled with its drain to the first bias voltage, and a second drive transistor having a gate and a source electrically coupled to the second additional secondary winding and coupled with its source to the second bias voltage; and a gate switching device (Q DUT) electrically coupled with its gate to the source of the first drive transistor and to the drain of the second drive transistor, wherein, in response to the first voltage the first drive transistor drives the gate switching device with the first bias voltage to turn on the gate switching device, and wherein, in response to the second voltage, the second drive transistor drives the gate switching device with the second bias voltage to turn off the gate switching device. a primary winding responsive to a pulse width modulated 'PWM' input signal; and a first secondary winding and a second secondary winding responsive to a PWM output signal of the primary winding, the first secondary winding including a first turn ratio different from a second turn ratio of the second secondary winding, the first secondary winding producing a first bias voltage (V ON) and the second secondary winding producing a second bias voltage (V OFF);
A process comprising: (a) subjecting a benzoic acid bearing stream comprising water and benzoic acid to evaporation in an evaporator zone to form a solvent rich vapor and a wash filtrate residue; and (b) subjecting said solvent rich vapor to distillation in a separation zone to form a solvent rich stream and a benzoic acid rich stream; wherein said benzoic acid rich stream comprises at least 5% by weight benzoic acid; wherein the solvent includes acetic acid and water, and wherein said benzoic acid bearing stream is produced in an aromatic oxidation process of p-xylene to terephthalic acid. (a) subjecting a benzoic acid bearing stream comprising water and benzoic acid to evaporation in an evaporator zone to form a solvent rich vapor and a wash filtrate residue; and (b) subjecting said solvent rich vapor to distillation in a separation zone to form a solvent rich stream and a benzoic acid rich stream; wherein said benzoic acid rich stream comprises at least 5% by weight benzoic acid;
A method for treating a patient's diabetes by providing treatment guidance, the method comprising: storing one or more components of the patient's insulin dosage regimen; obtaining data corresponding to the patient's blood glucose-level measurements (300, 400) determined at a plurality of times; tagging each of the blood glucose-level measurements with an identifier reflective of when or why the reading was obtained; determining the patient's current glycemic state relative to a desired balance point; and determining from at least one of a plurality of the data corresponding to the patient's blood glucose-level measurements whether and by how much to vary at least one of the one or more components in the patient's present insulin dosage regimen to get closer to the patient's desired balance point; wherein the method further comprises determining for each of the obtained blood glucose-level measurements whether the measurement reflects a severe hypoglycemic event; and varying at least one of the one or more components in the patient's insulin dosage regime in response to a determination that the most recent blood glucose-level measurement represents a severe hypoglycemic event; characterized in that the desired balance point is the patient's lowest blood glucose-level within a predetermined range achievable before increasing the frequency of hypoglycemic events above a predetermined threshold. storing one or more components of the patient's insulin dosage regimen; obtaining data corresponding to the patient's blood glucose-level measurements (300, 400) determined at a plurality of times; tagging each of the blood glucose-level measurements with an identifier reflective of when or why the reading was obtained; determining the patient's current glycemic state relative to a desired balance point; and determining from at least one of a plurality of the data corresponding to the patient's blood glucose-level measurements whether and by how much to vary at least one of the one or more components in the patient's present insulin dosage regimen to get closer to the patient's desired balance point; wherein the method further comprises determining for each of the obtained blood glucose-level measurements whether the measurement reflects a severe hypoglycemic event; and varying at least one of the one or more components in the patient's insulin dosage regime in response to a determination that the most recent blood glucose-level measurement represents a severe hypoglycemic event; characterized in that the desired balance point is the patient's lowest blood glucose-level within a predetermined range achievable before increasing the frequency of hypoglycemic events above a predetermined threshold.
A process for producing a laminated sheet, said process comprising: (a) extruding a first polymeric material into a heavy-gauge transparent polymer sheet having an average thickness of at least 1.016 mm (40 mils) and a haze of less than 15 percent; and (b) in-line laminating a pre-formed polymer film formed from a second polymeric material onto said heavy-gauge transparent polymer sheet to thereby provide a laminated polymer sheet, wherein said pre-formed polymer film comprises one or more polymeric film layers and has a total average thickness of at least 0.00254 mm (0.1 mils) and not more than 1.016 mm (40 mils). (a) extruding a first polymeric material into a heavy-gauge transparent polymer sheet having an average thickness of at least 1.016 mm (40 mils) and a haze of less than 15 percent; and (b) in-line laminating a pre-formed polymer film formed from a second polymeric material onto said heavy-gauge transparent polymer sheet to thereby provide a laminated polymer sheet, wherein said pre-formed polymer film comprises one or more polymeric film layers and has a total average thickness of at least 0.00254 mm (0.1 mils) and not more than 1.016 mm (40 mils).
A dual, counter-rotating, coaxial rotor system for a rotary wing aircraft comprising at least one main rotor blade of the upper rotor system and at least one main rotor blade of a lower rotor system, wherein the at least one main rotor blade of the upper rotor system has an upper main rotor blade positive twist gradient which transitions to an upper main rotor blade negative twist gradient between 0.3 and 0.5 x (r/R); the at least one main rotor blade of the lower rotor system has a lower main rotor blade positive twist gradient which transitions to a first lower main rotor blade negative twist gradient between 0.3 and 0.5 x (r/R) which then transitions to a second lower main rotor blade twist gradient above 0.8 x (r/R) more negative than the first lower main rotor blade negative twist gradient; and wherein said upper main rotor blade positive twist gradient is less than said lower main rotor positive twist gradient over an inboard section. the at least one main rotor blade of the upper rotor system has an upper main rotor blade positive twist gradient which transitions to an upper main rotor blade negative twist gradient between 0.3 and 0.5 x (r/R); the at least one main rotor blade of the lower rotor system has a lower main rotor blade positive twist gradient which transitions to a first lower main rotor blade negative twist gradient between 0.3 and 0.5 x (r/R) which then transitions to a second lower main rotor blade twist gradient above 0.8 x (r/R) more negative than the first lower main rotor blade negative twist gradient; and wherein said upper main rotor blade positive twist gradient is less than said lower main rotor positive twist gradient over an inboard section.
A reflection node for handling link failure towards a network node (300a, 300b), the reflection node comprising: a controller for controlling a passive meta-surface having a controllable reflection angle for reflecting radio waves over a communication channel (120a: 120d) between a network node (300a, 300b) and a wireless device (400a, 400b); and a transceiver unit for receiving instructions from the network node (300a, 300b) over a control channel; wherein the transceiver unit is configured to determine a link failure event on the control channel between the reflection node and the network node (300a, 300b); and wherein the controller is configured to, during the link failure event, control the reflection angle of the passive meta-surface using reflection settings specified by configuration data for reflecting the radio waves over the communication channel (120a: 120d). a controller for controlling a passive meta-surface having a controllable reflection angle for reflecting radio waves over a communication channel (120a: 120d) between a network node (300a, 300b) and a wireless device (400a, 400b); and a transceiver unit for receiving instructions from the network node (300a, 300b) over a control channel; wherein the transceiver unit is configured to determine a link failure event on the control channel between the reflection node and the network node (300a, 300b); and wherein the controller is configured to, during the link failure event, control the reflection angle of the passive meta-surface using reflection settings specified by configuration data for reflecting the radio waves over the communication channel (120a: 120d).
A machine to realize a footwear, the latter including an open-type upper and a bottom, including a first and second cut (5, 6), from the inside of the related upper surface out respectively, which correspondingly penetrate the body of the bottom itself and develop along related paths following the profile of the perimeter edge 2 of the same bottom; said machine further including: first retractor means, adapted to be inserted in the first cut to open wide the hems (50, 51) of the latter; second retractor means, adapted to be inserted in the second cut to open wide the related hems (60, 61); a needle mobile between a retracted position and an advanced one, and vice versa, being adapted to successively penetrate the lower edge of the upper and the portion of the bottom located between said cuts (5, 6) and to enter in a rotating hook device provided to cooperate with the needle itself in order to realize stiches; means adapted to synchronously translate said needle and rotating hook device with an alternating motion according to travels having an amplitude equal to a preset stitching pitch.
An ultrasound device comprising: an array of thousands of micromachined ultrasonic transducers and a plurality of pressure ports shared by the array of micromachined ultrasonic transducers, wherein the plurality of pressure ports are accessible internal to the array of micromachined ultrasonic transducers, wherein the array of micromachined ultrasonic transducers comprises: a plurality of sealed cavities, and wherein the plurality of pressure ports are configured to control a pressure of the sealed cavities, wherein each pressure port of the plurality of pressure ports comprises a portion in-plane with the plurality of sealed cavities and a portion substantially perpendicular to the plurality of sealed cavities. an array of thousands of micromachined ultrasonic transducers and a plurality of pressure ports shared by the array of micromachined ultrasonic transducers, wherein the plurality of pressure ports are accessible internal to the array of micromachined ultrasonic transducers, wherein the array of micromachined ultrasonic transducers comprises: a plurality of sealed cavities, and wherein the plurality of pressure ports are configured to control a pressure of the sealed cavities, wherein each pressure port of the plurality of pressure ports comprises a portion in-plane with the plurality of sealed cavities and a portion substantially perpendicular to the plurality of sealed cavities.
A circulating fluidized bed boiler, comprising - a furnace, - a loopseal, and - a loopseal heat exchanger arranged in the loopseal, the loopseal heat exchanger comprising - at least an inlet chamber, a bypass chamber, and a first heat exchange chamber, - heat exchanger pipes arranged in the first heat exchange chamber, and - a third wall part that limits the inlet chamber and the third wall part limits a particle inlet, through which bed material is configured to enter the first heat exchange chamber, wherein - the third wall part extends downwards to a third height level, characterized in that - a fourth wall part limits a primary particle outlet from below, the fourth wall part limits the first heat exchange chamber, and the fourth wall part limits a return channel, wherein - the primary particle outlet is for letting out bed material from the first heat exchange chamber, - the fourth wall part extends upwards to a fourth height level, - the third height level is at a lower vertical level than the fourth height level, - the primary particle outlet has at least a first part and a second part separated from each other by a barrier element in such a way that - the first part of the primary particle outlet has a first height and a first width, wherein - a ratio (h1/w1) of the first height to the first width is less than 0.5 or more than 2. - a furnace, - a loopseal, and - a loopseal heat exchanger arranged in the loopseal, the loopseal heat exchanger comprising - at least an inlet chamber, a bypass chamber, and a first heat exchange chamber, - heat exchanger pipes arranged in the first heat exchange chamber, and - a third wall part that limits the inlet chamber and the third wall part limits a particle inlet, through which bed material is configured to enter the first heat exchange chamber, wherein - the third wall part extends downwards to a third height level, - a fourth wall part limits a primary particle outlet from below, the fourth wall part limits the first heat exchange chamber, and the fourth wall part limits a return channel, wherein - the primary particle outlet is for letting out bed material from the first heat exchange chamber, - the fourth wall part extends upwards to a fourth height level, - the third height level is at a lower vertical level than the fourth height level, - the primary particle outlet has at least a first part and a second part separated from each other by a barrier element in such a way that - the first part of the primary particle outlet has a first height and a first width, wherein - a ratio (h1/w1) of the first height to the first width is less than 0.5 or more than 2.
An apparatus for monitoring a mass flow rate of harvested grain in a combine having a clean grain elevator including a clean grain elevator chain, comprising: a sensor surface; a sensor disposed to measure displacement of said sensor surface; a plurality of paddles mounted to said clean grain elevator chain; and processing circuitry in data communication with said sensor, said processing circuitry configured to estimate a flow rate of grain based on a signal generated by said sensor, characterised in that the apparatus further comprises a cleaning apparatus driven by said clean grain elevator chain and disposed to contact and remove material from said sensor surface, and in that said processing circuitry is further configured to distinguish a cleaning apparatus pulse from a plurality of paddle pulses, said cleaning apparatus pulse being generated when said cleaning apparatus contacts said sensor surface, said paddle pulses being generated when grain released by said plurality of paddles contacts said sensor surface. a sensor surface; a sensor disposed to measure displacement of said sensor surface; a plurality of paddles mounted to said clean grain elevator chain; and processing circuitry in data communication with said sensor, said processing circuitry configured to estimate a flow rate of grain based on a signal generated by said sensor, characterised in that the apparatus further comprises a cleaning apparatus driven by said clean grain elevator chain and disposed to contact and remove material from said sensor surface, and in that said processing circuitry is further configured to distinguish a cleaning apparatus pulse from a plurality of paddle pulses, said cleaning apparatus pulse being generated when said cleaning apparatus contacts said sensor surface, said paddle pulses being generated when grain released by said plurality of paddles contacts said sensor surface.
A device for blowing air by means of a narrow slit nozzle assembly, comprising a base seat for generating an air stream to supply air flow and a narrow slit nozzle assembly supported by the base seat for blowing air, wherein an airflow passage is connected between the base seat and the nozzle assembly, an intake end of the airflow passage is opened on an outer surface of the base seat, and an impeller and an electric motor for driving the impeller to rotate are provided within the base seat, an output end of the airflow passage is connected to the nozzle assembly by means of a pivot component; an intake end of the nozzle assembly is connected to an output end of the base seat by means of the pivot component; and the nozzle assembly is rotatably fixed on the base seat by means of the pivot component, characterised in that the nozzle assembly may be rotated relative to the base seat so as to lie flat around the periphery of the base seat 10.
A motorcycle tire that includes, as a frame, a carcass made up of one or more radial carcass plies toroidally extending between a pair of bead portions, and includes, on an outer circumferential side of a crown region of the carcass, a belt layer made up of a plurality of rubber-coated cords, a single auxiliary belt layer made up of a plurality of rubber-coated cords (C 4), and a tread rubber in the stated order, a periphery width of the auxiliary belt layer being greater than a periphery width of the belt layer, characterised in that the cords (C 4) of the auxiliary belt layer extend in a direction in which an inclination angle of the cords (C 4) of the auxiliary belt layer with respect to a tire circumferential direction gradually decreases from each of both ends of a tire equatorial region including a tire equatorial plane toward a corresponding 1/4 position which is at a distance of 1/4 of the periphery width of the auxiliary belt layer from the tire equatorial plane along a periphery of the auxiliary belt layer, and the inclination angle (α) in the 1/4 position is 60° or more and 85° or less, and the inclination angle (β) of the cords (C 4) of the auxiliary belt layer in an end of the auxiliary belt layer is 70° or more and 85° or less.
A bias sputtering device, comprising: a substrate holder having a self-revolving mechanism for supporting substrates in a vacuum chamber; substrate electrodes provided on the side of the substrate holder; and targets arranged so as to face the substrates, the bias sputtering device for applying electric power to the substrate electrodes and the targets and generating a plasma between the substrate electrodes and the targets, so that thin films are formed on surfaces of the substrates, wherein the substrate electrodes are provided only on the side of back surfaces of the substrates supported by the substrate holder, and the substrate electrodes and the substrates are arranged so as to be distant from each other by a predetermined distance. a substrate holder having a self-revolving mechanism for supporting substrates in a vacuum chamber; substrate electrodes provided on the side of the substrate holder; and targets arranged so as to face the substrates, the bias sputtering device for applying electric power to the substrate electrodes and the targets and generating a plasma between the substrate electrodes and the targets, so that thin films are formed on surfaces of the substrates, wherein the substrate electrodes are provided only on the side of back surfaces of the substrates supported by the substrate holder, and the substrate electrodes and the substrates are arranged so as to be distant from each other by a predetermined distance.