mhurhangee/patent-ind-claim-en huggingface dataset:
Polyethylene (PE-C) comprising at least (a) a first polyethylene fraction (PE-F1); said fraction is an ethylene copolymer of ethylene and 1-butene, (b) a second polyethylene fraction (PE-F2), said fraction is an ethylene copolymer of ethylene and 1-hexene, wherein said polyethylene (PE-C) has (c) a melt flow rate MFR 21 (190 °C; 21.6 kg) measured according to ISO 1133, in the range of 2.0 to 40 g/10min; and (d) a density measured according to ISO 1 183 / 1 872-2 B in the range of 0.930 to 0.940 (e) a flow rate ratio FFR (MFR 21 /MFR 5 ) in the range of 15 to 23 with melt flow rate MFR 21 (190 °C; 21.6 kg) measured according to ISO 1133, and melt flow rate MFR 5 (190 °C; 5 kg) measured according to ISO 1133; wherein further said first polyethylene fraction (PE-F1) has (f) a melt flow rate MFR 2 (190 °C; 2.16 kg) measured according to ISO 1133, in the range of 250 to 450 g/10min; and (g) a density measured according to ISO 1 183 / 1 872-2 B of more than 0.950 g/cm 3 . (a) a first polyethylene fraction (PE-F1); said fraction is an ethylene copolymer of ethylene and 1-butene, (b) a second polyethylene fraction (PE-F2), said fraction is an ethylene copolymer of ethylene and 1-hexene, wherein said polyethylene (PE-C) has (c) a melt flow rate MFR 21 (190 °C; 21.6 kg) measured according to ISO 1133, in the range of 2.0 to 40 g/10min; and (d) a density measured according to ISO 1 183 / 1 872-2 B in the range of 0.930 to 0.940 (e) a flow rate ratio FFR (MFR 21 /MFR 5 ) in the range of 15 to 23 with melt flow rate MFR 21 (190 °C; 21.6 kg) measured according to ISO 1133, and melt flow rate MFR 5 (190 °C; 5 kg) measured according to ISO 1133; wherein further said first polyethylene fraction (PE-F1) has (f) a melt flow rate MFR 2 (190 °C; 2.16 kg) measured according to ISO 1133, in the range of 250 to 450 g/10min; and (g) a density measured according to ISO 1 183 / 1 872-2 B of more than 0.950 g/cm 3 .
A hearing device configured to be at least partially inserted into an ear canal, the hearing device comprising - an acoustic transducer having a membrane configured to generate sound waves; - a housing enclosing a first chamber and a second chamber acoustically coupled by the membrane ; - a sound outlet configured to release sound waves from the first chamber into the ear canal; and - an acoustic port acoustically coupling the second chamber to an ambient environment outside the ear canal; - a resonant member configured to resonate with sound waves at a resonance frequency, wherein the second chamber is acoustically coupled to the resonant member ; wherein the acoustic port is a first acoustic port, and wherein the resonant member comprises a container enclosing a cavity and a second acoustic port acoustically coupling the second chamber to the cavity , characterized in that the resonant member is configured to effect an acoustic resistance (R) matching the relation R = α ⋅ π 2 ⋅ L 1 ⋅ C 1 C 2 for 0.5 ≤ α ≤ 2, wherein L1 is an acoustic reactance of the first acoustic port , C1 is an acoustic capacitance of the second chamber , and C2 is an acoustic capacitance of the cavity . - an acoustic transducer having a membrane configured to generate sound waves; - a housing enclosing a first chamber and a second chamber acoustically coupled by the membrane ; - a sound outlet configured to release sound waves from the first chamber into the ear canal; and - an acoustic port acoustically coupling the second chamber to an ambient environment outside the ear canal; - a resonant member configured to resonate with sound waves at a resonance frequency, wherein the second chamber is acoustically coupled to the resonant member ; wherein the acoustic port is a first acoustic port, and wherein the resonant member comprises a container enclosing a cavity and a second acoustic port acoustically coupling the second chamber to the cavity , characterized in that the resonant member is configured to effect an acoustic resistance (R) matching the relation R = α ⋅ π 2 ⋅ L 1 ⋅ C 1 C 2 for 0.5 ≤ α ≤ 2, wherein L1 is an acoustic reactance of the first acoustic port , C1 is an acoustic capacitance of the second chamber , and C2 is an acoustic capacitance of the cavity .
A clamp assembly (230; 400), comprising: a clamping band ; and a retaining assembly comprising: a bracket assembly (250; 310) having a first bracket end and a second bracket end , the first bracket end being configured to mount to a clamping band , wherein the bracket assembly (250; 310) comprises a first L-bracket having a first hinge aperture and a second L-bracket having a second hinge aperture ; and a retention component having a clevis (244; 325) coupled to the second bracket end , wherein the retention component comprises a spring loaded clip, wherein a first clamping arm of the clamping band is coupled to the first L-bracket and configured to pivot about a first hinge and a second clamping arm of the clamping band is coupled to the second L-bracket and configured to pivot about a second hinge , and wherein the clamping band is configured to join a first tube end of a first tube to a second tube end of a second tube. a clamping band ; and a retaining assembly comprising: a bracket assembly (250; 310) having a first bracket end and a second bracket end , the first bracket end being configured to mount to a clamping band , wherein the bracket assembly (250; 310) comprises a first L-bracket having a first hinge aperture and a second L-bracket having a second hinge aperture ; and a retention component having a clevis (244; 325) coupled to the second bracket end , wherein the retention component comprises a spring loaded clip, wherein a first clamping arm of the clamping band is coupled to the first L-bracket and configured to pivot about a first hinge and a second clamping arm of the clamping band is coupled to the second L-bracket and configured to pivot about a second hinge , and wherein the clamping band is configured to join a first tube end of a first tube to a second tube end of a second tube. a bracket assembly (250; 310) having a first bracket end and a second bracket end , the first bracket end being configured to mount to a clamping band , wherein the bracket assembly (250; 310) comprises a first L-bracket having a first hinge aperture and a second L-bracket having a second hinge aperture ; and a retention component having a clevis (244; 325) coupled to the second bracket end , wherein the retention component comprises a spring loaded clip, wherein a first clamping arm of the clamping band is coupled to the first L-bracket and configured to pivot about a first hinge and a second clamping arm of the clamping band is coupled to the second L-bracket and configured to pivot about a second hinge , and wherein the clamping band is configured to join a first tube end of a first tube to a second tube end of a second tube.
Light applicator for the examination and/or treatment of an organic body, wherein the light applicator has a minimally invasive insertion section , which extends along an axial longitudinal direction (L) and at its distal end has an LED , wherein at the distal end of the insertion section is arranged a needle tip extending at least partially distalwards from the LED , and tapering distalwards with a light-transparent scattering body for purposes of scattering the light of the LED , wherein a security element at least partially peripherally surrounding the distal end of the insertion section , and at least partially peripherally surrounding the needle tip , is connected to the insertion section and the needle tip , wherein the security element is flexible, in at least some sections, and, in the event of an at least partial break-off or fracture of the needle tip , secures the latter at the distal end of the insertion section against a complete break-off from the light applicator .
A method comprising: receiving , at a client device, media content from a first user account, the media content comprising media data and an authentication credential, said authentication credential being associated with a second user account; applying a timestamp to the media content in response to the receiving the media content from the first user account; authenticating the media content at the client device based on the authentication credential; based on the timestamp, presenting the media content at a position among a collection of media content in an approval queue associated with the second user account at the client device, in response to the authenticating the media content based on the authentication credential; receiving an approval of the media content from the second user account; and adding the media content to a media collection associated with the second user account in response to the receiving the approval of the media content. receiving , at a client device, media content from a first user account, the media content comprising media data and an authentication credential, said authentication credential being associated with a second user account; applying a timestamp to the media content in response to the receiving the media content from the first user account; authenticating the media content at the client device based on the authentication credential; based on the timestamp, presenting the media content at a position among a collection of media content in an approval queue associated with the second user account at the client device, in response to the authenticating the media content based on the authentication credential; receiving an approval of the media content from the second user account; and adding the media content to a media collection associated with the second user account in response to the receiving the approval of the media content.
Method for manufacturing a gas sensor package, comprising the steps of - mounting a semiconductor chip on a carrier , - applying a molding compound for at least partially enclosing the semiconductor chip thereby generating an opening in the molding compound , the opening providing access to a portion of the semiconductor chip being uncovered by the molding compound , - applying a sensitive material which is sensitive to one or more analytes, through the opening in the molding compound onto the uncovered portion of the semiconductor chip for building a layer sensitive to a gas. - mounting a semiconductor chip on a carrier , - applying a molding compound for at least partially enclosing the semiconductor chip thereby generating an opening in the molding compound , the opening providing access to a portion of the semiconductor chip being uncovered by the molding compound , - applying a sensitive material which is sensitive to one or more analytes, through the opening in the molding compound onto the uncovered portion of the semiconductor chip for building a layer sensitive to a gas.
A refrigeration system of the "free cooling" type, comprising: a working fluid circuit comprising a working fluid to be cooled, a first and at least a second refrigeration circuit with a refrigeration cycle each comprising a refrigerant, and a sub-cooling unit having heat exchange means comprising a heat exchanger connected to said working fluid circuit and connected to and shared by said first and at least second refrigeration circuits where a heat exchange between said working fluid and said condensed refrigerants occurs, whereby said working fluid sub-cools said refrigerants circulating in said refrigeration circuits, wherein the refrigeration system further comprises a first and at least a second air cooling battery, both inserted on sections set in parallel in said working fluid circuit, wherein said first and at least second air cooling battery , respectively, are flanked by a respective condenser provided in said first and at least second refrigeration circuit , respectively, wherein a first forced ventilation means supplying a flow of air on said first air cooling battery to cool said working fluid is provided and shared by said first air cooling battery and said condenser of said first refrigeration circuit , wherein at least a second forced ventilation means supplying a flow of air on said second air cooling battery to cool said working fluid is provided and shared by said at least a second air cooling battery and said condenser of said second refrigeration circuit , and wherein the refrigeration system further comprises a shared evaporator connected to said first and at least second refrigeration circuits and to said working fluid circuit, where cooling of said working fluid occurs.
A device (200; 300; 400) for cleaning a protective film (210; 310; 410) to be attached to an outer surface of a laminate of electrodes during a lamination process of heating and pressing the laminate of electrodes and a separator to produce an electrode assembly for a battery cell, comprising: a feed roll (221; 321; 421) configured to supply the protective film (210; 310; 410); at least one guide roll (225, 227; 325, 327; 425, 427) configured to guide a progress of the protective film (210; 310; 410) supplied from the feed roll (221; 321; 421); a cleaning roll (240; 340; 440) located between the feed roll (221; 321; 421) and a winding roll (260; 360; 460) and configured to remove foreign substances remaining on the protective film (210; 310; 410) supplied from the feed roll (221; 321; 421); and the winding roll (260; 360; 460) configured to wind the protective film (210; 310; 410) from which foreign substances have been removed by the cleaning roll (240; 340; 440), characterized in that the device is provided with means for forming a nano thin film on an outer surface of the cleaning roll (240; 340; 440) to adsorb and remove the foreign substances remaining on the protective film (210; 310; 410) and in that the device comprises a sensor (251, 253; 351, 353; 451, 453) positioned between the cleaning roll (140; 240; 340; 440) and the winding roll (260; 360; 460) with respect to a movement direction of the protective film (210; 310; 410) said sensor being configured to check whether or not the foreign substances on the protective film (210; 310; 410) have been removed. a feed roll (221; 321; 421) configured to supply the protective film (210; 310; 410); at least one guide roll (225, 227; 325, 327; 425, 427) configured to guide a progress of the protective film (210; 310; 410) supplied from the feed roll (221; 321; 421); a cleaning roll (240; 340; 440) located between the feed roll (221; 321; 421) and a winding roll (260; 360; 460) and configured to remove foreign substances remaining on the protective film (210; 310; 410) supplied from the feed roll (221; 321; 421); and the winding roll (260; 360; 460) configured to wind the protective film (210; 310; 410) from which foreign substances have been removed by the cleaning roll (240; 340; 440), characterized in that the device is provided with means for forming a nano thin film on an outer surface of the cleaning roll (240; 340; 440) to adsorb and remove the foreign substances remaining on the protective film (210; 310; 410) and in that the device comprises a sensor (251, 253; 351, 353; 451, 453) positioned between the cleaning roll (140; 240; 340; 440) and the winding roll (260; 360; 460) with respect to a movement direction of the protective film (210; 310; 410) said sensor being configured to check whether or not the foreign substances on the protective film (210; 310; 410) have been removed.
Apparatus for controlling motion of an invasive probe relative to a sheath enclosing the probe, the apparatus comprising: an outer casing , configured for fixed connection to the sheath; and a drive mechanism , fixedly connected to the outer casing, wherein the outer casing extends distally from the drive mechanism, the drive mechanism comprising: a fixed unit fixed to the outer casing; a movable unit connected to the fixed unit; a first set of components, configured to translate the moveable unit relative to the fixed unit along a direction parallel to an axis of the probe, in order to advance and retract the probe with respect to the sheath in a translational stepwise manner; and a second set of components, configured to rotate the moveable unit relative to the fixed unit around the axis of the probe, in order to rotate the probe clockwise and counter-clockwise, with respect to the sheath, in a rotational stepwise manner. an outer casing , configured for fixed connection to the sheath; and a drive mechanism , fixedly connected to the outer casing, wherein the outer casing extends distally from the drive mechanism, the drive mechanism comprising: a fixed unit fixed to the outer casing; a movable unit connected to the fixed unit; a first set of components, configured to translate the moveable unit relative to the fixed unit along a direction parallel to an axis of the probe, in order to advance and retract the probe with respect to the sheath in a translational stepwise manner; and a second set of components, configured to rotate the moveable unit relative to the fixed unit around the axis of the probe, in order to rotate the probe clockwise and counter-clockwise, with respect to the sheath, in a rotational stepwise manner. a fixed unit fixed to the outer casing; a movable unit connected to the fixed unit; a first set of components, configured to translate the moveable unit relative to the fixed unit along a direction parallel to an axis of the probe, in order to advance and retract the probe with respect to the sheath in a translational stepwise manner; and a second set of components, configured to rotate the moveable unit relative to the fixed unit around the axis of the probe, in order to rotate the probe clockwise and counter-clockwise, with respect to the sheath, in a rotational stepwise manner. a first set of components, configured to translate the moveable unit relative to the fixed unit along a direction parallel to an axis of the probe, in order to advance and retract the probe with respect to the sheath in a translational stepwise manner; and a second set of components, configured to rotate the moveable unit relative to the fixed unit around the axis of the probe, in order to rotate the probe clockwise and counter-clockwise, with respect to the sheath, in a rotational stepwise manner.
A method for charging raw materials into a blast furnace, the blast furnace including a bell-less charging device that includes a plurality of main hoppers and an auxiliary hopper at a furnace top portion, the auxiliary hopper having a smaller capacity than the main hoppers, the method comprising discharging ore charged in at least one of the plurality of main hoppers and then sequentially charging the ore from a furnace center side toward a furnace wall side by using a rotating chute , wherein after charging of the ore is started, only the ore is charged from the rotating chute at least until charging of 15 mass% of the ore is completed based on a total amount of the ore to be charged per batch; then, at a point in time, discharging of small-size coke charged in the auxiliary hopper is started, the small-size coke having an average particle diameter, D50, of approximately 5 to 25 mm; and then, the small-size coke is charged together with the ore from the rotating chute for a time period. the method comprising discharging ore charged in at least one of the plurality of main hoppers and then sequentially charging the ore from a furnace center side toward a furnace wall side by using a rotating chute , wherein after charging of the ore is started, only the ore is charged from the rotating chute at least until charging of 15 mass% of the ore is completed based on a total amount of the ore to be charged per batch; then, at a point in time, discharging of small-size coke charged in the auxiliary hopper is started, the small-size coke having an average particle diameter, D50, of approximately 5 to 25 mm; and then, the small-size coke is charged together with the ore from the rotating chute for a time period.
A method of preparing a thermoplastic polyurethane, the method comprising: reacting 35 to 70 weight percent of a hydrogenated polydiene diol, 5 to 25 weight percent of a poly(alkylene oxide) diol, 2 to 10 weight percent of a chain extender, and 15 to 40 weight percent of a diisocyanate in the presence of a solvent to form the thermoplastic polyurethane; wherein weight percent values are based on 100 weight percent total of the hydrogenated polydiene diol, the poly(alkylene oxide), the chain extender, and the diisocyanate. 35 to 70 weight percent of a hydrogenated polydiene diol, 5 to 25 weight percent of a poly(alkylene oxide) diol, 2 to 10 weight percent of a chain extender, and 15 to 40 weight percent of a diisocyanate
An air conditioner comprising: an outdoor unit configured to exchange heat with outdoor air; and a solar cell panel disposed at a side of the outdoor unit and comprising a plurality of parts that are relatively movable, the plurality of parts comprising power generation regions configured to generate electricity from solar light, wherein as the plurality of parts are moved relatively to each other, areas of the power generation regions exposed to the sun are varied, whereby: as the plurality of parts are moved relative to each other, the solar cell panel is selectively switched to one of a first disposition where the power generation regions of the plurality of parts are exposed to the sun and a second disposition where the power generation regions of the plurality of parts are not exposed to the sun, and the air conditioner characterized in that : the solar cell panel is rotatably connected to the outdoor unit, wherein in the first disposition, the solar cell panel is kept in a rotated state where the power generation region is exposed to the sun, and in the second disposition, the solar cell panel is kept in a rotated state where the power generation region faces the outdoor unit. an outdoor unit configured to exchange heat with outdoor air; and a solar cell panel disposed at a side of the outdoor unit and comprising a plurality of parts that are relatively movable, the plurality of parts comprising power generation regions configured to generate electricity from solar light, wherein as the plurality of parts are moved relatively to each other, areas of the power generation regions exposed to the sun are varied, whereby: as the plurality of parts are moved relative to each other, the solar cell panel is selectively switched to one of a first disposition where the power generation regions of the plurality of parts are exposed to the sun and a second disposition where the power generation regions of the plurality of parts are not exposed to the sun, and the air conditioner characterized in that : the solar cell panel is rotatably connected to the outdoor unit, wherein in the first disposition, the solar cell panel is kept in a rotated state where the power generation region is exposed to the sun, and in the second disposition, the solar cell panel is kept in a rotated state where the power generation region faces the outdoor unit. the solar cell panel is rotatably connected to the outdoor unit, wherein in the first disposition, the solar cell panel is kept in a rotated state where the power generation region is exposed to the sun, and in the second disposition, the solar cell panel is kept in a rotated state where the power generation region faces the outdoor unit.