mhurhangee/patent-ind-claim-en huggingface dataset:
An LED screen device, comprising: a scattering cover and an LED screen body , wherein the scattering cover covers a front of the LED screen body , the scattering cover is fixedly connected with the LED screen body ; and the size of the scattering cover mutually corresponds to the size of the LED screen body ; wherein a front side of the scattering cover is provided with a plurality of ball top structures , and a back side of the scattering cover defines a series of independent grooves, with or without partition structures; and wherein a plurality of LED pixel lamps are provided on the LED screen body , each LED pixel lamp corresponding to a pixel of the LED screen and extending into the grooves, particularly between partition structures, to mutually correspond to the ball top structures , and the filling coefficient reaches at least 93%, and this causes there to be no visible gaps between neighboring pixels, or for any visible gaps to be very small characterized in that the scattering cover is formed of a material with a haze that is not lower than 70 % and uniformly diffuses light emitted by the LED pixel lamps to the size of the physical area occupied by the pixel. a scattering cover and an LED screen body , wherein the scattering cover covers a front of the LED screen body , the scattering cover is fixedly connected with the LED screen body ; and the size of the scattering cover mutually corresponds to the size of the LED screen body ; wherein a front side of the scattering cover is provided with a plurality of ball top structures , and a back side of the scattering cover defines a series of independent grooves, with or without partition structures; and wherein a plurality of LED pixel lamps are provided on the LED screen body , each LED pixel lamp corresponding to a pixel of the LED screen and extending into the grooves, particularly between partition structures, to mutually correspond to the ball top structures , and the filling coefficient reaches at least 93%, and this causes there to be no visible gaps between neighboring pixels, or for any visible gaps to be very small characterized in that the scattering cover is formed of a material with a haze that is not lower than 70 % and uniformly diffuses light emitted by the LED pixel lamps to the size of the physical area occupied by the pixel.
Method for purifying by membrane permeation of a gas flow comprising methane and carbon dioxide, said method comprising the following successive steps: - a step (a) of compressing the gas flow to a pressure of between 5 and 20 bar, - a first step (b) of cooling the compressed gas flow to a temperature of between 0 and 15°C, - a step (c) of drying the cooled and compressed gas flow in order to obtain a water content ≤ 0.1ppm, - a second step (d) of cooling the gas flow coming from step (c) by means of a heat exchanger to a temperature of between 0 and -60°C, - a step (e) of separating the gas flow cooled to a temperature of between 0 and -60°C coming from step (d) through a first, a second and a third membrane stage, each providing a CO 2 -depleted retentate and a CO 2 -enriched permeate with the first stage receiving the cooled gas flow coming from step (d), the second stage receiving the retentate from the first stage and the third stage receiving the permeate from the first stage, - a step (f) of recovering a methane-enriched gas flow comprising a first sub-step of recovering the retentate from the second stage and a second sub-step of heating the retentate from the second stage to a temperature of between 0 and 20°C, with: - the retentate from the second stage is heated by means of the exchanger and is then fed to a liquefaction unit, - after step (e), the permeate from the second stage and the retentate from the third stage are recovered before heating them in the exchanger to a temperature of between 0 and 20°C, and then mixing them with the gas flow to be purified before compression step (a). - a step (a) of compressing the gas flow to a pressure of between 5 and 20 bar, - a first step (b) of cooling the compressed gas flow to a temperature of between 0 and 15°C, - a step (c) of drying the cooled and compressed gas flow in order to obtain a water content ≤ 0.1ppm, - a second step (d) of cooling the gas flow coming from step (c) by means of a heat exchanger to a temperature of between 0 and -60°C, - a step (e) of separating the gas flow cooled to a temperature of between 0 and -60°C coming from step (d) through a first, a second and a third membrane stage, each providing a CO 2 -depleted retentate and a CO 2 -enriched permeate with the first stage receiving the cooled gas flow coming from step (d), the second stage receiving the retentate from the first stage and the third stage receiving the permeate from the first stage, - a step (f) of recovering a methane-enriched gas flow comprising a first sub-step of recovering the retentate from the second stage and a second sub-step of heating the retentate from the second stage to a temperature of between 0 and 20°C, - the retentate from the second stage is heated by means of the exchanger and is then fed to a liquefaction unit, - after step (e), the permeate from the second stage and the retentate from the third stage are recovered before heating them in the exchanger to a temperature of between 0 and 20°C, and then mixing them with the gas flow to be purified before compression step (a).
A vacuum device, namely a vacuum pump , in particular a turbomolecular pump or a split-flow pump, which is connectable to a recipient via at least one suction opening and which is designed to generate a pressure of less than or equal to 10 -5 mbar, preferably to generate a pressure of less than or equal to 10 -7 mbar, in particular to generate a pressure of less than or equal to 10 -9 mbar, in the recipient, wherein at least one seal is provided to seal the connection, characterized in that the seal comprises a core, in particular an elastomer core , and a jacket ; in that the jacket of the seal consists of a material which includes PTFE plastic or PTFE-based plastic or consists of a material including FEP plastic and/or PFA plastic; in that the jacket surrounds the core at its side facing the suction opening; and in that the jacket is designed as open or overlapping at one side, in particular at its side remote from the suction opening.
A method executed by a mobile terminal , comprising: signaling to a serving base station a capability to operate in one or more carrier aggregation, CA, configurations each comprising one or more frequency bands supported by one or more receivers of the mobile terminal ; providing to the serving base station , for each CA configuration, an indication of measurement gap requirements for a subset of frequency bands supported by the one or more receivers of the mobile terminal when the mobile terminal operates in said each CA configuration; receiving from the serving base station a configuration command to select a carrier aggregation configuration from the one or more carrier aggregation configurations; assigning receiver resources to operate on communication bands associated with carriers in the selected carrier aggregation configuration; and signaling to the serving base station inter-frequency measurement gap requirements based on the selected carrier aggregation configuration. signaling to a serving base station a capability to operate in one or more carrier aggregation, CA, configurations each comprising one or more frequency bands supported by one or more receivers of the mobile terminal ; providing to the serving base station , for each CA configuration, an indication of measurement gap requirements for a subset of frequency bands supported by the one or more receivers of the mobile terminal when the mobile terminal operates in said each CA configuration; receiving from the serving base station a configuration command to select a carrier aggregation configuration from the one or more carrier aggregation configurations; assigning receiver resources to operate on communication bands associated with carriers in the selected carrier aggregation configuration; and signaling to the serving base station inter-frequency measurement gap requirements based on the selected carrier aggregation configuration.
A method for the hydroerosive processing of components, in which a liquid comprising grinding particles flows over surfaces of the component , in a device having a channel through which the liquid comprising grinding particles flows under pressure and in which the component to be processed is received, and in which a valve , with which the flow of the liquid can be adjusted, is positioned in front of the component in the flow direction, wherein the method comprises the following steps: (a) closing the valve in front of the component and generating a predetermined pressure in the liquid comprising the grinding particles; (b) opening the valve in front of the component and setting up a first volumetric flow of the liquid comprising the grinding particles, which is from 5 to 80% less than the product of the minimum setpoint cross-sectional area flowed through and the maximum permissible speed at this position, without the predetermined pressure generated in step (a) being changed; (c) measuring the pressure difference which is set up between a position in front of the component to be processed and a position behind the component to be processed in the liquid comprising the grinding particles; (d) increasing the volumetric flow of the liquid comprising the grinding particles until the volumetric flow corresponds to the product of the minimum setpoint cross-sectional area flowed through and the maximum permissible speed at this position, as soon as the pressure difference measured in step (c) has decreased by from 5 to 80%; (e) closing the valve in front of the component and terminating the flow, as soon as the volumetric flow in step (d) corresponds to the product of the minimum setpoint cross-sectional area flowed through and the maximum permissible speed at this position. (a) closing the valve in front of the component and generating a predetermined pressure in the liquid comprising the grinding particles; (b) opening the valve in front of the component and setting up a first volumetric flow of the liquid comprising the grinding particles, which is from 5 to 80% less than the product of the minimum setpoint cross-sectional area flowed through and the maximum permissible speed at this position, without the predetermined pressure generated in step (a) being changed; (c) measuring the pressure difference which is set up between a position in front of the component to be processed and a position behind the component to be processed in the liquid comprising the grinding particles; (d) increasing the volumetric flow of the liquid comprising the grinding particles until the volumetric flow corresponds to the product of the minimum setpoint cross-sectional area flowed through and the maximum permissible speed at this position, as soon as the pressure difference measured in step (c) has decreased by from 5 to 80%; (e) closing the valve in front of the component and terminating the flow, as soon as the volumetric flow in step (d) corresponds to the product of the minimum setpoint cross-sectional area flowed through and the maximum permissible speed at this position.
A voltage detecting glove , comprising: (a) an outer glove shell; (b) a glove liner having a proximal portion and a distal portion having fingers extending from the proximal portion, the proximal portion and distal portion each having opposing front sides and back sides , the glove liner being constructed with a nonconductive material and disposed within the outer shell; and (c) a voltage detector comprising: (i) voltage detecting circuitry having an input and (ii) an antenna connected to the input. and characterised in that : (i) the antenna is disposed between the glove liner and the outer and comprises a conductor that begins at a connector end located on the back side of the proximal portion , then extends along, and wraps around the end of, a preselected one of the fingers, and ther terminates at a free end ; (ii) a buffer having a thickness of at least 2.5 mm is interposed betweer the glove liner and the antenna; and (iii) the voltage detector is configured to sense the presence of an AC electric field having a predetermined, expected frequency proximate the antenna and activate an alarm in response to detection of a signal at the input indicative of a field having a strength exceeding a preselected threshold limit. (a) an outer glove shell; (b) a glove liner having a proximal portion and a distal portion having fingers extending from the proximal portion, the proximal portion and distal portion each having opposing front sides and back sides , the glove liner being constructed with a nonconductive material and disposed within the outer shell; and (c) a voltage detector comprising: (i) voltage detecting circuitry having an input and (ii) an antenna connected to the input. and characterised in that : (i) the antenna is disposed between the glove liner and the outer and comprises a conductor that begins at a connector end located on the back side of the proximal portion , then extends along, and wraps around the end of, a preselected one of the fingers, and ther terminates at a free end ; (ii) a buffer having a thickness of at least 2.5 mm is interposed betweer the glove liner and the antenna; and (iii) the voltage detector is configured to sense the presence of an AC electric field having a predetermined, expected frequency proximate the antenna and activate an alarm in response to detection of a signal at the input indicative of a field having a strength exceeding a preselected threshold limit. (i) the antenna is disposed between the glove liner and the outer and comprises a conductor that begins at a connector end located on the back side of the proximal portion , then extends along, and wraps around the end of, a preselected one of the fingers, and ther terminates at a free end ; (ii) a buffer having a thickness of at least 2.5 mm is interposed betweer the glove liner and the antenna; and (iii) the voltage detector is configured to sense the presence of an AC electric field having a predetermined, expected frequency proximate the antenna and activate an alarm in response to detection of a signal at the input indicative of a field having a strength exceeding a preselected threshold limit.
A liquid ejection head comprising: an ejection opening row in which a plurality of ejection openings configured to eject a liquid are disposed in a first direction; a pressure chamber in which a print element configured to generate energy to be used to eject a liquid is disposed; a passage which communicates with the pressure chamber ; a supply opening row in which a plurality of supply openings extending in a second direction intersecting a face provided with the print element and configured to supply a liquid to the passage are arranged in the first direction; a collection opening row in which a plurality of collection openings extending in the second direction and configured to collect a liquid from the passage are arranged in the first direction; a first common supply passage which extends in the first direction and is configured to supply a liquid to the supply opening row; a first common collection passage which extends in the first direction and is configured to collect a liquid from the collection opening row; at least one first supply side communication opening which extends in the second direction and is configured to supply a liquid to the first common supply passage ; and at least one first collection side communication opening which extends in the second direction and is configured to collect a liquid from the first common collection passage , wherein at least one of the at least one first supply side communication opening and the at least one first collection side communication opening is two or more in number. an ejection opening row in which a plurality of ejection openings configured to eject a liquid are disposed in a first direction; a pressure chamber in which a print element configured to generate energy to be used to eject a liquid is disposed; a passage which communicates with the pressure chamber ; a supply opening row in which a plurality of supply openings extending in a second direction intersecting a face provided with the print element and configured to supply a liquid to the passage are arranged in the first direction; a collection opening row in which a plurality of collection openings extending in the second direction and configured to collect a liquid from the passage are arranged in the first direction; a first common supply passage which extends in the first direction and is configured to supply a liquid to the supply opening row; a first common collection passage which extends in the first direction and is configured to collect a liquid from the collection opening row; at least one first supply side communication opening which extends in the second direction and is configured to supply a liquid to the first common supply passage ; and at least one first collection side communication opening which extends in the second direction and is configured to collect a liquid from the first common collection passage , wherein at least one of the at least one first supply side communication opening and the at least one first collection side communication opening is two or more in number.
A compound of Formula (I): or a tautomer or a stereoisomeric form thereof, wherein R 1 is C 1-4 alkyl; R 2 is selected from the group of C 1-4 alkyl; C 3-6 cycloalkyl; and Het 1 ; Het 1 is a heteroaryl selected from the group of thiazolyl and isoxazolyl, each of which may be optionally substituted with one or two C 1-4 alkyl substituents; or R 1 and R 2 together with the carbon atom to which they are attached form a C 3-6 cycloalkyl; R 3 is hydrogen; R 4 is hydrogen R 5 is hydrogen; R 6 is selected from the group of halogen and C 1-6 alkyl; R 7 is hydrogen; R 8 is selected from the group of hydrogen, Het 6 , cyano, -C(=O)NR 8a R 8b , C 1-6 alkyl, and C 2-6 alkenyl; wherein C 1-6 alkyl and C 2-6 alkenyl are optionally substituted with one or more substituents each independently selected from the group of cyano and -OR 8f ; R 8a , R 8b , and R 8f are each independently selected from the group of hydrogen and C 1-6 alkyl; Het 6 is selected from the group of piperidinyl and azetidinyl, each of which may be optionally substituted with one or two substituents independently selected from fluoro, benzyl, C 1-4 alkyl, C 3-6 cycloalkyl, and C 1-4 alkyl substituted with one or more fluoro substituents; and R 9 is hydrogen; or a pharmaceutically acceptable addition salt or a solvate thereof. R 1 is C 1-4 alkyl; R 2 is selected from the group of C 1-4 alkyl; C 3-6 cycloalkyl; and Het 1 ; Het 1 is a heteroaryl selected from the group of thiazolyl and isoxazolyl, each of which may be optionally substituted with one or two C 1-4 alkyl substituents; or R 1 and R 2 together with the carbon atom to which they are attached form a C 3-6 cycloalkyl; R 3 is hydrogen; R 4 is hydrogen R 5 is hydrogen; R 6 is selected from the group of halogen and C 1-6 alkyl; R 7 is hydrogen; R 8 is selected from the group of hydrogen, Het 6 , cyano, -C(=O)NR 8a R 8b , C 1-6 alkyl, and C 2-6 alkenyl; wherein C 1-6 alkyl and C 2-6 alkenyl are optionally substituted with one or more substituents each independently selected from the group of cyano and -OR 8f ; R 8a , R 8b , and R 8f are each independently selected from the group of hydrogen and C 1-6 alkyl; Het 6 is selected from the group of piperidinyl and azetidinyl, each of which may be optionally substituted with one or two substituents independently selected from fluoro, benzyl, C 1-4 alkyl, C 3-6 cycloalkyl, and C 1-4 alkyl substituted with one or more fluoro substituents; and R 9 is hydrogen; or a pharmaceutically acceptable addition salt or a solvate thereof.
Two-way horticulture trolley for driving in different directions over different heights and/or types of surfaces, like paved floors and pipe-rails, comprising: - a frame ; - track-wheels for driving the trolley forward or backwards in a first direction (X) over tracks (R), like pipe-rails, that extend in the first direction (X) in between and along plant growing paths; - floor-wheels for driving the trolley sideways in a second direction (Y) over a corridor (C), like a paved floor, that extends in the second direction (Y) along ends of the tracks (R); - one or more driving motors configured to rotate the track- and/or floor-wheels around their horizontal center axis for driving the trolley forward or backwards respectively sideways; - a control unit for controlling the one or more driving motors ; and - a detector unit, characterized in that, the detector unit comprises one or more track detectors that are configured for: • performing primary detections whether or not a head end part (TP) of one of the tracks (R) is present within a certain area in front of at least a left or right one of the track-wheels ; • performing secondary detections whether or not left and right portions of the head end part (TP) of the one of the tracks (R) lie lined-up with both the left and right ones of the track-wheels ; and • sending respective detection signals to the control unit in dependence of the performed primary and secondary detection, wherein the control unit is configured to control the one or more driving motors in dependence of the received respective detection signals. - a frame ; - track-wheels for driving the trolley forward or backwards in a first direction (X) over tracks (R), like pipe-rails, that extend in the first direction (X) in between and along plant growing paths; - floor-wheels for driving the trolley sideways in a second direction (Y) over a corridor (C), like a paved floor, that extends in the second direction (Y) along ends of the tracks (R); - one or more driving motors configured to rotate the track- and/or floor-wheels around their horizontal center axis for driving the trolley forward or backwards respectively sideways; - a control unit for controlling the one or more driving motors ; and - a detector unit, • performing primary detections whether or not a head end part (TP) of one of the tracks (R) is present within a certain area in front of at least a left or right one of the track-wheels ; • performing secondary detections whether or not left and right portions of the head end part (TP) of the one of the tracks (R) lie lined-up with both the left and right ones of the track-wheels ; and • sending respective detection signals to the control unit in dependence of the performed primary and secondary detection,
A method of making a composition comprising providing materials to a mixing device, the materials comprising wood pulp fibers in the form of diced particles and thermoplastic polymer, wherein for every 100 weight percent of material provided to the mixer the pulp fibers comprise 65 to 90 weight percent of the material, mixing the fiber and the polymer in the mixing device to form a fiber/polymer blend in which the fibers are dispersed within the polymer, wherein the exit area of the mixing device is 40 to 60% of the cross-sectional area of the mixing device, and thereafter forming the fiber/polymer blend into pellets.