mhurhangee/patent-ind-claim-en huggingface dataset:
A method for precipitating visible or invisible particles present in suspension in a must or a liquid, said method comprising: the introduction of a yeast extract comprising an amount by weight of nucleic acids of at least 10%, preferably of at least 15%, more preferentially of 20% to 95% and even more preferentially of 30% to 48%, relative to the total weight of said extract, said nucleic acids being formed from fragments of ribonucleic acid (RNA), in said must or liquid, said must or liquid being chosen from wine, tea, beer or fruit juices, the precipitation of said yeast extract with the visible or invisible particles in suspension in said must or liquid leading to the clarifying of said must or liquid. the introduction of a yeast extract comprising an amount by weight of nucleic acids of at least 10%, preferably of at least 15%, more preferentially of 20% to 95% and even more preferentially of 30% to 48%, relative to the total weight of said extract, said nucleic acids being formed from fragments of ribonucleic acid (RNA), in said must or liquid, said must or liquid being chosen from wine, tea, beer or fruit juices, the precipitation of said yeast extract with the visible or invisible particles in suspension in said must or liquid leading to the clarifying of said must or liquid.
A terminal comprising: a transmitting unit configured to transmit, to a base station , signals required for a two-step random access procedure and a four-step random access procedure; a receiving unit configured to receive, from the base station , signals required for the two-step random access procedure and the four-step random access procedure; and a control unit configured to switch, based on a switch trigger, a random access procedure between the two-step random access procedure and the four-step random access procedure, wherein the transmitting unit is configured to, when the two-step random access procedure is switched to the four-step random access procedure, transmit, to the base station , information related to MSGA in the two-step random access procedure. a transmitting unit configured to transmit, to a base station , signals required for a two-step random access procedure and a four-step random access procedure; a receiving unit configured to receive, from the base station , signals required for the two-step random access procedure and the four-step random access procedure; and a control unit configured to switch, based on a switch trigger, a random access procedure between the two-step random access procedure and the four-step random access procedure, wherein the transmitting unit is configured to, when the two-step random access procedure is switched to the four-step random access procedure, transmit, to the base station , information related to MSGA in the two-step random access procedure.
A panel audio loudspeaker, comprising: a panel ; an actuator attached to a surface of the panel and configured to cause vibration of the panel, the actuator comprising a magnetic coil in thermal communication with the panel; a plurality of electrical sensors electrically coupled to the magnetic coil and configured to output time-varying electrical data for the magnetic coil; and an electronic control module in communication with the magnetic coil and the plurality of electrical sensors, wherein the electronic control module is configured to perform operations comprising: providing a current to the magnetic coil; receiving, from the plurality of electrical sensors, the time-varying electrical data for the magnetic coil; based on the time-varying electrical data for the magnetic coil, determining an electrical energy provided to the magnetic coil between a first time and a second time; accessing a thermal model of the panel; and based on the electrical energy provided to the magnetic coil, and the thermal model of the panel, determining a change in a panel temperature between the first time and the second time. a panel ; an actuator attached to a surface of the panel and configured to cause vibration of the panel, the actuator comprising a magnetic coil in thermal communication with the panel; a plurality of electrical sensors electrically coupled to the magnetic coil and configured to output time-varying electrical data for the magnetic coil; and an electronic control module in communication with the magnetic coil and the plurality of electrical sensors, wherein the electronic control module is configured to perform operations comprising: providing a current to the magnetic coil; receiving, from the plurality of electrical sensors, the time-varying electrical data for the magnetic coil; based on the time-varying electrical data for the magnetic coil, determining an electrical energy provided to the magnetic coil between a first time and a second time; accessing a thermal model of the panel; and based on the electrical energy provided to the magnetic coil, and the thermal model of the panel, determining a change in a panel temperature between the first time and the second time. providing a current to the magnetic coil; receiving, from the plurality of electrical sensors, the time-varying electrical data for the magnetic coil; based on the time-varying electrical data for the magnetic coil, determining an electrical energy provided to the magnetic coil between a first time and a second time; accessing a thermal model of the panel; and based on the electrical energy provided to the magnetic coil, and the thermal model of the panel, determining a change in a panel temperature between the first time and the second time.
A frame lock for a two-wheeler, said frame lock comprising a lock body , which comprises a latch , and a rotary hoop which extends along a circular path and which is adjustable relative to the lock body along the circular path between an open position, in which the rotary hoop releases a wheel of the two-wheeler for a rotation, and a closed position in which the rotary hoop blocks the wheel against rotation, wherein the rotary hoop has a blocking structure comprising an abutment section , wherein the latch is adjustable between an unlocked position and a locked position, and wherein, when the rotary hoop is in its closed position and the latch is in its locked position, the latch engages behind the abutment section and thereby blocks the rotary hoop against an adjustment into the open position, characterized in that the blocking structure comprises at least one web which projects from the rotary hoop and which has the abutment section . wherein the rotary hoop has a blocking structure comprising an abutment section , wherein the latch is adjustable between an unlocked position and a locked position, and wherein, when the rotary hoop is in its closed position and the latch is in its locked position, the latch engages behind the abutment section and thereby blocks the rotary hoop against an adjustment into the open position, characterized in that the blocking structure comprises at least one web which projects from the rotary hoop and which has the abutment section .
A method for controlling ventilation of a transmission , the transmission comprising: a plurality of pneumatic actuators for gear shifting, wherein the pneumatic actuators are arranged to discharge compressed air comprised therein via a common ventilation system comprising at least one ventilation opening arranged in a housing arrangement of the transmission , each pneumatic actuator comprising at least one outlet valve for emitting the compressed air to the common ventilation system, the common ventilation system comprising a common space through which the compressed air must flow to reach the at least one ventilation opening , the at least one ventilation opening being arranged to fluidly connect the common ventilation system to an external space outside of the housing arrangement ,the method comprising: - determining that a predetermined flushing condition is fulfilled; and - in response thereto, initiating a flushing action in which at least two of the pneumatic actuators are controlled to discharge compressed air simultaneously or substantially simultaneously to the common ventilation system so as to force air through the at least one ventilation opening . - determining that a predetermined flushing condition is fulfilled; and - in response thereto, initiating a flushing action in which at least two of the pneumatic actuators are controlled to discharge compressed air simultaneously or substantially simultaneously to the common ventilation system so as to force air through the at least one ventilation opening .
Use of a solid nutritional supplement comprising, a) 0.2 to 16 wt % alginate, b) 0.12 to 12 wt % pectin, and c) 75 to 99 wt % active ingredients, where the active ingredients are selected from one or more of the ingredients consisting of sugars, complex carbohydrates, mineral salts, and amino acids, to be dissolved in water for use as a sport drink. a) 0.2 to 16 wt % alginate, b) 0.12 to 12 wt % pectin, and c) 75 to 99 wt % active ingredients, where the active ingredients are selected from one or more of the ingredients consisting of sugars, complex carbohydrates, mineral salts, and amino acids,
Device for growing mushrooms, comprising: - a shelving , - arranged for supporting beds (1-12) for holding casing soil and compost on a pulling net, - said beds for holding compost on a pulling net; wherein - the beds are placed at a mutual distance above each other; - the beds are mutually movable, between at least: - a first position, wherein a second bed supported above a first bed at least partially impedes the accessibility of the first bed in a direction perpendicular to the plane in which the first bed extends; and - a second position in which at least a larger part of the first bed is free approachable from a direction perpendicular to the plane in which the first bed extends than in the first position, wherein - the displacement between the first and the second position requires a displacement of the first bed only, and wherein - the device comprises a mechanic coupling between at least two beds, for moving the beds from the first position to the second position simultaneously, - characterized in that the mechanic coupling is coupled to at least two beds that are not adjacent in a vertical direction, and wherein there is at least one bed in between the beds to which the mechanic coupling is coupled, to which at least one bed the mechanic coupling is not coupled. - a shelving , - arranged for supporting beds (1-12) for holding casing soil and compost on a pulling net, - arranged for supporting beds (1-12) for holding casing soil and compost on a pulling net, - said beds for holding compost on a pulling net; wherein - the beds are placed at a mutual distance above each other; - the beds are mutually movable, between at least: - a first position, wherein a second bed supported above a first bed at least partially impedes the accessibility of the first bed in a direction perpendicular to the plane in which the first bed extends; and - a second position in which at least a larger part of the first bed is free approachable from a direction perpendicular to the plane in which the first bed extends than in the first position, wherein - a first position, wherein a second bed supported above a first bed at least partially impedes the accessibility of the first bed in a direction perpendicular to the plane in which the first bed extends; and - a second position in which at least a larger part of the first bed is free approachable from a direction perpendicular to the plane in which the first bed extends than in the first position, wherein - the displacement between the first and the second position requires a displacement of the first bed only, and wherein - the device comprises a mechanic coupling between at least two beds, for moving the beds from the first position to the second position simultaneously, - characterized in that the mechanic coupling is coupled to at least two beds that are not adjacent in a vertical direction, and wherein there is at least one bed in between the beds to which the mechanic coupling is coupled, to which at least one bed the mechanic coupling is not coupled.
Line driver for a communication device, which comprises a PHY interface apparatus, in which the line driver comprises - a bridge rectifier, which comprises two bus-side terminals (B1-B2) and two device-side terminals (T1-T2), - a first high-pass filter arrangement (H1), which can be connected to a first transmit unit (TX) of the PHY interface apparatus (PHY) of the communication device, - a second high-pass filter arrangement (H2), which can be connected to a second transmit unit (TX) of the PHY interface apparatus (PHY) of the communication device, - wherein the first high-pass filter arrangement (H1) and the second high-pass filter arrangement (H2) each comprise an apparatus for compensation of resistance tolerances of a fuse, which is subject to tolerances, of a circuit, - wherein the apparatus comprises the fuse (F), which is subject to tolerances, a first resistance (R S ) that is connected in series with the fuse (F) and a second resistance (R P ) that is connected in parallel with the fuse (F) and the first resistance (R S ), - wherein the apparatus, at a predefined ambient temperature, has a resistance that corresponds to a desired total resistance, - wherein the second resistance (R P ) is selected as a function of a power entered into the apparatus in a fault state and/or as a function of a predefined tolerance of the resistance of the apparatus and amounts to a multiple of the first resistance (R S ). - a bridge rectifier, which comprises two bus-side terminals (B1-B2) and two device-side terminals (T1-T2), - a first high-pass filter arrangement (H1), which can be connected to a first transmit unit (TX) of the PHY interface apparatus (PHY) of the communication device, - a second high-pass filter arrangement (H2), which can be connected to a second transmit unit (TX) of the PHY interface apparatus (PHY) of the communication device, - wherein the first high-pass filter arrangement (H1) and the second high-pass filter arrangement (H2) each comprise an apparatus for compensation of resistance tolerances of a fuse, which is subject to tolerances, of a circuit, - wherein the apparatus comprises the fuse (F), which is subject to tolerances, a first resistance (R S ) that is connected in series with the fuse (F) and a second resistance (R P ) that is connected in parallel with the fuse (F) and the first resistance (R S ), - wherein the apparatus, at a predefined ambient temperature, has a resistance that corresponds to a desired total resistance, - wherein the second resistance (R P ) is selected as a function of a power entered into the apparatus in a fault state and/or as a function of a predefined tolerance of the resistance of the apparatus and amounts to a multiple of the first resistance (R S ).
Arrangement having a power converter that comprises an electrical series circuit of modules that each comprise four electronic switching elements (S1, S2, S3, S4) and an electrical energy store (C), with a cooling device for cooling the electronic switching elements by means of a liquid coolant and a heat exchanger , and with a drive unit for driving the electronic switching elements which drives the electronic switching elements in such a way that at least one current harmonic is generated in the series circuit when the temperature of the liquid coolant , or the temperature of a medium that is to absorb the heat at the heat exchanger, falls below a preselected limit temperature, wherein the power converter is designed as a circuit with a delta configuration and the current harmonic is an nth order current harmonic, where n is an integer multiple of 3.
A module for a patient care system , the module comprising: a housing having an attachment side configured to releasably attach to an adjacent electronic module ; a latch mechanism configured to engage a catch member on the adjacent electronic module to secure the attachment side to the adjacent electronic module; an electrical connector positioned on the attachment side and configured to electrically connect to an adjacent electrical connector on the adjacent electronic module; and a sensor characterized in that : the sensor is coupled to a latch extension extending from the latch mechanism and configured to be disposed within the housing and configured to detect movement of the latch mechanism.
A soap base composition produced from a saponification reaction between: (a) a first mixture including a first herbal extract infusion having soluble components of an herb solvated in a first extraction medium, wherein the first extraction medium is a first saponification reactant for producing the soap base composition; and (b) a second mixture including a second saponification reactant for producing the soap base composition, wherein the second mixture includes a second herbal extract infusion having soluble components of an herb solvated in a second extraction medium, wherein the second extraction medium has a same composition as the second saponification reactant. (a) a first mixture including a first herbal extract infusion having soluble components of an herb solvated in a first extraction medium, wherein the first extraction medium is a first saponification reactant for producing the soap base composition; and (b) a second mixture including a second saponification reactant for producing the soap base composition, wherein the second mixture includes a second herbal extract infusion having soluble components of an herb solvated in a second extraction medium, wherein the second extraction medium has a same composition as the second saponification reactant.
A method for smart load shedding of climate control loads of a transport climate control system that provides climate control to a vehicle , the method comprises: obtaining vehicle status data indicative of conditions at the vehicle that affect energy storage and consumption during a route , wherein the vehicle status data includes a stored energy amount; obtaining route condition data indicative of conditions along the route ; determining a predicted energy consumption to complete the route based on the vehicle status data and the route condition data ; comparing the predicted energy consumption to the stored energy amount ; and when the predicted energy consumption exceeds the stored energy amount, performing a load shedding operation of the climate control loads of the transport climate control system , wherein performing the load shedding operation includes: changing a desired climate setpoint of the transport climate control system; and/or increasing a dead band of a compressor included in the transport climate control system; and/or increasing cooling provided to a battery of the vehicle. obtaining vehicle status data indicative of conditions at the vehicle that affect energy storage and consumption during a route , wherein the vehicle status data includes a stored energy amount; obtaining route condition data indicative of conditions along the route ; determining a predicted energy consumption to complete the route based on the vehicle status data and the route condition data ; comparing the predicted energy consumption to the stored energy amount ; and when the predicted energy consumption exceeds the stored energy amount, performing a load shedding operation of the climate control loads of the transport climate control system , wherein performing the load shedding operation includes: changing a desired climate setpoint of the transport climate control system; and/or increasing a dead band of a compressor included in the transport climate control system; and/or increasing cooling provided to a battery of the vehicle. changing a desired climate setpoint of the transport climate control system; and/or increasing a dead band of a compressor included in the transport climate control system; and/or increasing cooling provided to a battery of the vehicle.
A back-contact solar cell module, comprising a plurality of cells and a plurality of connecting ribbons ; wherein, auxiliary gate electrodes for collecting currents are provided on the front side of each cell; a plurality of current collection holes are provided on a substrate of each cell; a plurality of main gate electrodes for gathering currents of the auxiliary gate electrodes and a back side electrode for leading out the currents are provided on the back side of each cell; wherein in each cell the auxiliary gate electrodes are connected to the main gate electrodes via the current collection holes ; the main gate electrodes , located on the back side of the cell and in one-to-one correspondence with positions of current collection holes , are arranged linearly, parallel to the back side electrode , characterized in that , the back side electrode is linear; the back side electrode and the main gate electrodes are located at two ends of the back side of the cell respectively; the plurality of cells are arranged in parallel in columns, defining cell columns, between two adjacent cells, the main gate electrodes of one cell are arranged adjacent to the back side electrode of the other cell; the main gate electrodes of one cell are fixedly connected to the back side electrode of the other adjacent cell via the connecting ribbon , and wherein the soldering direction of the connecting ribbon is orthogonal to the length direction of the cell columns.
An imaging element comprising: a photoelectric conversion element ; a first amplification element configured to amplify a signal from the photoelectric conversion element ; a second amplification element configured to amplify an output from the first amplification element ; an offset element provided between an output node of the first amplification element and a gate of the second amplification element ; a first reset element configured to reset a charge at a gate of the first amplification element ; and a second reset element configured to reset a charge at a gate of the second amplification element ; wherein the offset element is a capacitor configured to accumulate a charge via a feedback loop of an output from the second amplification element , thereby generating an offset bias; and wherein an output of the second amplification element is connected to a first input of a differential amplifier provided at least partially outside of the imaging element , a reference signal is connected to a second input of the differential amplifier , and an output from the differential amplifier is connected to the second reset element . a photoelectric conversion element ; a first amplification element configured to amplify a signal from the photoelectric conversion element ; a second amplification element configured to amplify an output from the first amplification element ; an offset element provided between an output node of the first amplification element and a gate of the second amplification element ; a first reset element configured to reset a charge at a gate of the first amplification element ; and a second reset element configured to reset a charge at a gate of the second amplification element ; wherein the offset element is a capacitor configured to accumulate a charge via a feedback loop of an output from the second amplification element , thereby generating an offset bias; and wherein an output of the second amplification element is connected to a first input of a differential amplifier provided at least partially outside of the imaging element , a reference signal is connected to a second input of the differential amplifier , and an output from the differential amplifier is connected to the second reset element .