mhurhangee/ep-ind-claims huggingface dataset:
A packaging machine adapted to fold at least one of the protective-material flat sheets (101, 102) of a load that comprises: a substantially parallelepiped-shaped, item to be packaged, and one or more protective-material flat sheets (101, 102) that are placed to cover the base and/or the top of said item to be packaged and furthermore cantileverly jut out from the sidewalls of said item to be packaged; said packaging machine comprising: a ground-resting and self-supporting framework; a linear conveyor which is placed on the self-supporting framework and is adapted to move forward the load in a substantially horizontal, first direction (d); at least a first pair of movable shoulders (4, 74) that are arranged one in front of the other above the linear conveyor, extend parallel to said first direction (d), and are horizontally movable above the linear conveyor substantially perpendicular to said first direction (d); and at least a first moving device (5, 75) which is adapted to move said movable shoulders (4, 74) towards and away from one another; said packaging machine also comprising at least one section-bar magazine which is adapted to contain a plurality of rectilinear section-bars, each of which is structured so as to cover and protect a vertical edge of the item to be packaged; and being characterized by additionally comprising an insertion assembly which is located at one of the two ends of the aisle laterally delimited by said movable shoulders (4, 74), is movable over the linear conveyor and is adapted to pick up at least one rectilinear section-bar from the section-bar magazine and then to arrange/place said rectilinear section-bar in abutment against at least one of the vertical edges of the item to be packaged stationary between said movable shoulders (4, 74).
A heat transfer unit - with a housing, which contains a tube and comprises a jacket, which encloses the tube subject to forming an annular channel, - with a primary inlet and a primary outlet, which are fluidically interconnected via a primary path conducting a primary medium through the annular channel and via a bypass path conducting the primary medium through the tube, - with a control device for controlling a through-flow of the primary path and of the bypass path with the primary medium, - with at least two separate secondary inlets and at least two separate secondary outlets, which are fluidically interconnected via at least two secondary paths for conducting a secondary medium, - wherein the primary path is coupled to the secondary paths in a media-separated, heat-transferring manner, - wherein at least two coils are provided, which are arranged in the annular channel, which helically embrace the tube, and through each of which a secondary path is routed, - wherein the coils differ from one another through different heat transfer performances, characterized in that - each coil comprises a coil tube, which inside conducts the secondary medium and outside carries the cooling fins exposed to the primary medium, - the coils differ from one another through a different size of the cooling fins and/or through a different number of the cooling fins per unit length and/or through a different geometry of the cooling fins and/or through different materials of the cooling fins. - with a housing, which contains a tube and comprises a jacket, which encloses the tube subject to forming an annular channel, - with a primary inlet and a primary outlet, which are fluidically interconnected via a primary path conducting a primary medium through the annular channel and via a bypass path conducting the primary medium through the tube, - with a control device for controlling a through-flow of the primary path and of the bypass path with the primary medium, - with at least two separate secondary inlets and at least two separate secondary outlets, which are fluidically interconnected via at least two secondary paths for conducting a secondary medium, - wherein the primary path is coupled to the secondary paths in a media-separated, heat-transferring manner, - wherein at least two coils are provided, which are arranged in the annular channel, which helically embrace the tube, and through each of which a secondary path is routed, - wherein the coils differ from one another through different heat transfer performances, - each coil comprises a coil tube, which inside conducts the secondary medium and outside carries the cooling fins exposed to the primary medium, - the coils differ from one another through a different size of the cooling fins and/or through a different number of the cooling fins per unit length and/or through a different geometry of the cooling fins and/or through different materials of the cooling fins.
A trusted data transmission method performed by a proxy service provider device, comprising: obtaining a data use request of a data requestor, wherein the data use request comprises a data type of needed data; obtaining authorization information of a data owner; generating a data authorization use claim based on the authorization information, wherein the data authorization use claim is used for indicating that the data owner authorizes the data requestor to use the data; sending the data authorization use claim to a trusted application, TAPP, in the proxy service provider device, wherein the TAPP corresponds to the data type of the needed data; obtaining initial data collected by the TAPP from a data acquisition address in the data authorization use claim, wherein the TAPP runs in a trusted execution environment, TEE, and is configured to collect the initial data; verifying the initial data to obtain target data that passes the verification, wherein the target data comprises a data validity claim, and the data validity claim is used for indicating the validity of the target data; and sending the target data to the data requestor. obtaining a data use request of a data requestor, wherein the data use request comprises a data type of needed data; obtaining authorization information of a data owner; generating a data authorization use claim based on the authorization information, wherein the data authorization use claim is used for indicating that the data owner authorizes the data requestor to use the data; sending the data authorization use claim to a trusted application, TAPP, in the proxy service provider device, wherein the TAPP corresponds to the data type of the needed data; obtaining initial data collected by the TAPP from a data acquisition address in the data authorization use claim, wherein the TAPP runs in a trusted execution environment, TEE, and is configured to collect the initial data; verifying the initial data to obtain target data that passes the verification, wherein the target data comprises a data validity claim, and the data validity claim is used for indicating the validity of the target data; and sending the target data to the data requestor.
A solid shaft sub-assembly comprising: a solid shaft having a first portion and a second portion; and a yoke comprising an inner surface, a bottom surface, and an inner wall defining an aperture to receive the solid shaft, the aperture having a non-circular first cross-sectional profile, wherein the solid shaft second portion is positioned within the aperture and is deformed such that the second portion is formed with a second cross-sectional profile complementary to the first cross-sectional profile to axially and torsionally couple the solid shaft to the yoke, characterized in that the solid shaft comprises grooves extending axially along the length of the solid shaft, and the inner wall of the yoke includes projections extending inwardly into the aperture and configured to be received in the grooves of the solid shaft, and wherein the solid shaft first portion has a first diameter and the solid shaft second portion has a second diameter smaller than the first diameter, such that the solid shaft first portion includes a shoulder that abuts the bottom surface of the yoke, and the solid shaft second portion includes an enlarged end face with a third cross-sectional profile that is larger than the first cross-sectional profile. a solid shaft having a first portion and a second portion; and a yoke comprising an inner surface, a bottom surface, and an inner wall defining an aperture to receive the solid shaft, the aperture having a non-circular first cross-sectional profile, wherein the solid shaft second portion is positioned within the aperture and is deformed such that the second portion is formed with a second cross-sectional profile complementary to the first cross-sectional profile to axially and torsionally couple the solid shaft to the yoke, characterized in that the solid shaft comprises grooves extending axially along the length of the solid shaft, and the inner wall of the yoke includes projections extending inwardly into the aperture and configured to be received in the grooves of the solid shaft, and wherein the solid shaft first portion has a first diameter and the solid shaft second portion has a second diameter smaller than the first diameter, such that the solid shaft first portion includes a shoulder that abuts the bottom surface of the yoke, and the solid shaft second portion includes an enlarged end face with a third cross-sectional profile that is larger than the first cross-sectional profile.
A wind turbine blade comprising: a main blade portion having a longitudinal axis that extends between a root end and a tip end of the main blade portion, and a conductive blade tip module coupled to a lightning protection system of the wind turbine blade, the conductive blade tip module is mounted to the tip end of the main blade portion and has a leading edge, a trailing edge, a windward surface extending between the leading edge and the trailing edge, and a leeward surface extending between the leading edge and the trailing edge, wherein the main blade portion comprises a blade tip interface that is the outermost part of the main blade portion which engages with and is coupled to the blade tip module, and characterized in that the blade tip module leading edge has a wave-like profile and/or wherein at least one of the windward and leeward surfaces of the blade tip module has a plurality of grooves extending towards the trailing edge, and in that the blade tip module has a chord length at a root end that is greater than a chord length of the blade tip interface. a main blade portion having a longitudinal axis that extends between a root end and a tip end of the main blade portion, and a conductive blade tip module coupled to a lightning protection system of the wind turbine blade, the conductive blade tip module is mounted to the tip end of the main blade portion and has a leading edge, a trailing edge, a windward surface extending between the leading edge and the trailing edge, and a leeward surface extending between the leading edge and the trailing edge, wherein the main blade portion comprises a blade tip interface that is the outermost part of the main blade portion which engages with and is coupled to the blade tip module, and characterized in that the blade tip module leading edge has a wave-like profile and/or wherein at least one of the windward and leeward surfaces of the blade tip module has a plurality of grooves extending towards the trailing edge, and in that the blade tip module has a chord length at a root end that is greater than a chord length of the blade tip interface.
A method for determining the linear electrical resistance in AC mode of a steel pipeline, characterized in that it comprises the steps of: a) generating in a portion of the pipeline an induced current resulting from the production of a magnetic field at a predefined frequency by means of an induction coil centered on a longitudinal axis (X-X) of the pipeline and traversed by an AC current, the induction coil being housed in a yoke made of ferromagnetic material in order to confine the magnetic field to a predefined surface of the pipeline portion; b) measuring the active power (P heat) dissipated by the pipeline portion subjected to the magnetic field; c) determining the amplitude of the produced magnetic field; and d) determining the linear electrical resistance in AC mode of the pipeline portion from the measurements of the dissipated active power and the amplitude of the induced magnetic field, the linear electrical resistance in AC mode of the pipeline portion being determined in step d) by the equation: R AC_DEH = (2 × ∏ heat_JIMP) / ( π × OD × H JIMP) 2; where R AC_DEH is the electrical resistance in AC mode, Π heat_JIMP is the active power dissipated per unit length of the pipeline, OD is the diameter of the pipeline, and H JIMP is the amplitude of the produced magnetic field. a) generating in a portion of the pipeline an induced current resulting from the production of a magnetic field at a predefined frequency by means of an induction coil centered on a longitudinal axis (X-X) of the pipeline and traversed by an AC current, the induction coil being housed in a yoke made of ferromagnetic material in order to confine the magnetic field to a predefined surface of the pipeline portion; b) measuring the active power (P heat) dissipated by the pipeline portion subjected to the magnetic field; c) determining the amplitude of the produced magnetic field; and d) determining the linear electrical resistance in AC mode of the pipeline portion from the measurements of the dissipated active power and the amplitude of the induced magnetic field, the linear electrical resistance in AC mode of the pipeline portion being determined in step d) by the equation: R AC_DEH = (2 × ∏ heat_JIMP) / ( π × OD × H JIMP) 2; where R AC_DEH is the electrical resistance in AC mode, Π heat_JIMP is the active power dissipated per unit length of the pipeline, OD is the diameter of the pipeline, and H JIMP is the amplitude of the produced magnetic field.
Kitchen appliance, which has a hob and at least one fume extraction device, wherein the fume extraction device has a vent and at least one cover cap for covering the vent, characterised in that the fume extraction device has a guide, which, in the assembled state, runs vertically and is used to vertically move the cover plate in a vertical alignment, wherein the guide is arranged below the vent and the fume extraction device has a carriage, which is mounted displaceably on the guide in order to bring the cover plate into an insertion position, in which the cover flap rests completely below the vent, and to extend the same herefrom, and the cover flap is connected pivotably with the carriage by way of a hinge so that the cover flap can be pivoted out of a rest position, in which the cover plate lies horizontally and covers the vent, upward into an operating position and out from the operating position into the rest position.
Power electronic circuit having a plurality of interconnected power modules, wherein the power modules • each have at least one power electronic element, in particular a transistor, • have a plurality of capacitors which are wired in parallel and are electrically connected to the at least one power electronic element, wherein the power modules are designed in such a way that • the power electronic elements are mounted on one side of substrate plates, • the capacitors are mounted in a plurality of planes one above the other on the other side of the substrate plates, wherein the substrate plates, with the power electronic elements forward and alongside each other, are fixed onto an assembly side of a base circuit carrier. • each have at least one power electronic element, in particular a transistor, • have a plurality of capacitors which are wired in parallel and are electrically connected to the at least one power electronic element, • the power electronic elements are mounted on one side of substrate plates, • the capacitors are mounted in a plurality of planes one above the other on the other side of the substrate plates, wherein the substrate plates, with the power electronic elements forward and alongside each other, are fixed onto an assembly side of a base circuit carrier.
A method of forming a ceramic-polymer composite powder, the method comprising: mixing a solvent, particles of a ceramic that is selected from the group of ceramics consisting of: Al 2 O 3, ZrO 2, and combinations of Al 2 O 3 and ZrO 2, and a semi-crystalline polymer selected from the group of semi-crystalline polymers consisting of: polyphenylene sulfide, polyaryl ether ketone (PAEK), polybutylene terephthalate, polypropylene, polyethylene, semi-crystalline polyimide (SC PI), and semi-crystalline polyamide (SC Polyamide); dissolving at least partially the semi-crystalline polymer in the solvent by superheating the mixture to a first temperature above the normal boiling point of the solvent and while maintaining the mixture at or above a first pressure at which the solvent remains substantially liquid; agitating the superheated mixture for a period of minutes while maintaining the mixture at or above the first temperature and at or above the first pressure; cooling the mixture to or below a second temperature below the normal boiling point of the solvent to cause the semi-crystalline polymer to precipitate on the particles of the ceramic and thereby form a plurality of core-shell particles each comprising a core and a shell around the core, where the core comprises a particle of the ceramic and the shell comprises the semi-crystalline polymer. mixing a solvent, particles of a ceramic that is selected from the group of ceramics consisting of: Al 2 O 3, ZrO 2, and combinations of Al 2 O 3 and ZrO 2, and a semi-crystalline polymer selected from the group of semi-crystalline polymers consisting of: polyphenylene sulfide, polyaryl ether ketone (PAEK), polybutylene terephthalate, polypropylene, polyethylene, semi-crystalline polyimide (SC PI), and semi-crystalline polyamide (SC Polyamide); dissolving at least partially the semi-crystalline polymer in the solvent by superheating the mixture to a first temperature above the normal boiling point of the solvent and while maintaining the mixture at or above a first pressure at which the solvent remains substantially liquid; agitating the superheated mixture for a period of minutes while maintaining the mixture at or above the first temperature and at or above the first pressure; cooling the mixture to or below a second temperature below the normal boiling point of the solvent to cause the semi-crystalline polymer to precipitate on the particles of the ceramic and thereby form a plurality of core-shell particles each comprising a core and a shell around the core, where the core comprises a particle of the ceramic and the shell comprises the semi-crystalline polymer.
A method of venting air out of a closed fluid system comprising a number of inter connected pipes configured for flow of a fluid, a variable speed pump configured for controlling the volume flow of fluid in said fluid system and an air venting device configured to let air out from the fluid system, the method characterized by comprising operating said pump in at least three phases, wherein • in a first phase, said pump is operated to provide a number of first flow pulses in said fluid system each having a pulse width being shorter than a first pulse width, • in a second phase, during which air, if present in said fluid, is detected, and • in a third phase, said pump is operated to provide a number of third flow pulses in said fluid system each having a pulse width being longer than said first pulse width. • in a first phase, said pump is operated to provide a number of first flow pulses in said fluid system each having a pulse width being shorter than a first pulse width, • in a second phase, during which air, if present in said fluid, is detected, and • in a third phase, said pump is operated to provide a number of third flow pulses in said fluid system each having a pulse width being longer than said first pulse width.
A tube arrangement, comprising: a composite tube defining a centerline axis, wherein the composite tube comprises a proximal surface and a distal surface; and an end fitting comprising a first end disposed within the composite tube and a second end extending from the composite tube; wherein an outer surface of the end fitting defines a flared portion defining a terminus of the first end, a lobe portion disposed axially from the flared portion, and a terminating portion disposed axially from the lobe portion, the terminating portion defines a second flared portion, the second flared portion defining a concave fitting surface, wherein the concave fitting surface is rounded, the composite tube terminates at the terminating portion, and wherein the lobe portion defines an annular ridge disposed around the end fitting, the annular ridge being oriented orthogonal with respect to a centerline axis of the end fitting and the distal surface of the composite tube conforms to the geometry of the outer surface of the end fitting, and characterised in that the composite tube comprises a rounded, flared proximal surface terminating at the terminating portion. a composite tube defining a centerline axis, wherein the composite tube comprises a proximal surface and a distal surface; and an end fitting comprising a first end disposed within the composite tube and a second end extending from the composite tube; wherein an outer surface of the end fitting defines a flared portion defining a terminus of the first end, a lobe portion disposed axially from the flared portion, and a terminating portion disposed axially from the lobe portion, the terminating portion defines a second flared portion, the second flared portion defining a concave fitting surface, wherein the concave fitting surface is rounded, the composite tube terminates at the terminating portion, and wherein the lobe portion defines an annular ridge disposed around the end fitting, the annular ridge being oriented orthogonal with respect to a centerline axis of the end fitting and the distal surface of the composite tube conforms to the geometry of the outer surface of the end fitting, and characterised in that the composite tube comprises a rounded, flared proximal surface terminating at the terminating portion.
Contact device directly or indirectly connectable to a vehicle and adapted to co-act mechanically and electrically with a track comprising an electric conductor put under voltage and located in a road section on which the vehicle is travelling, in order to supply electric voltage to at least one electric motor which propels the vehicle, wherein the contact device is displaceable upwards, downwards and laterally and comprises at least one current collector and at least one cleansing device, wherein the cleansing device comprises a front portion inclined at an acute angle with respect to the bottom part of the cleansing device, characterised in that the current collector comprises a sliding contact configured to be brought into mechanical and electrical contact with at least a vertical side wall portion of the track, wherein elastic material is provided on opposite sides of the front portion of the cleansing device facing the vertical side walls of the track, and wherein the width of the cleansing device including the elastic material is substantially the same as or larger than the width of the track such that a substantially fluid tight seal is formed between the cleansing device and the vertical side wall of the track.
A wound dressing composition comprising a first layer and a second layer, wherein the first layer comprises a collagen and an oxidized cellulose, and wherein the second layer comprises a nitrite source, wherein the wound dressing composition is a single multi-layered dressing, wherein the first layer and the second layer are adjoined.