mhurhangee/ep-ind-claims huggingface dataset:
A tip for a 3D scanner, wherein the tip comprises: - a tip framework (105, 605), where a first part of the framework comprises a first material and a second part of the framework comprises a second material where both the first and second part form a portion of the outer surface of the framework, where the ratio between the thermal conductivity of the second material and the thermal conductivity of the first material is 5 or more, and where the second material is a metal; and - an optical element (107, 607) arranged at said second part of the framework (105, 605) in thermal contact with the second material. - a tip framework (105, 605), where a first part of the framework comprises a first material and a second part of the framework comprises a second material where both the first and second part form a portion of the outer surface of the framework, where the ratio between the thermal conductivity of the second material and the thermal conductivity of the first material is 5 or more, and where the second material is a metal; and - an optical element (107, 607) arranged at said second part of the framework (105, 605) in thermal contact with the second material.
Process for relaxing keratin fibres, comprising: (i) a step of applying to the keratin fibres a hair-relaxing composition containing as sole hair-relaxing active agent a polyhydroxylated aromatic compound chosen from: resorcinol 2-methylresorcinol 5-methylresorcinol 4-methylresorcinol 4-ethylresorcinol 2,5-dimethylresorcinol 4,5-dimethylresorcinol 4-propylresorcinol 4-n-butylresorcinol the pH of the composition being less than or equal to 9, (ii) a step of raising the temperature of the keratin fibres, using a heating means, to a temperature of between 110 and 250°C. (i) a step of applying to the keratin fibres a hair-relaxing composition containing as sole hair-relaxing active agent a polyhydroxylated aromatic compound chosen from: resorcinol 2-methylresorcinol 5-methylresorcinol 4-methylresorcinol 4-ethylresorcinol 2,5-dimethylresorcinol 4,5-dimethylresorcinol 4-propylresorcinol 4-n-butylresorcinol the pH of the composition being less than or equal to 9, resorcinol 2-methylresorcinol 5-methylresorcinol 4-methylresorcinol 4-ethylresorcinol 2,5-dimethylresorcinol 4,5-dimethylresorcinol 4-propylresorcinol 4-n-butylresorcinol (ii) a step of raising the temperature of the keratin fibres, using a heating means, to a temperature of between 110 and 250°C.
An installation for the surface treatment of articles, in particular of vehicle body parts, with a) at least two treatment booths, which each define one treatment chamber; b) a conveying device, by means of which the articles may be conveyed along a conveying path to in each case one of the treatment booths, into the treatment chamber of this treatment booth, out of the treatment chamber of this treatment booth and away from this treatment booth; wherein c) each treatment booth is enclosed in each case by a modular unit (BM, BM') in the form of a treatment module (BM, BM'), which unit may be moved as a unit and is arranged and fixed detachably in an operating position relative to the conveying path, characterized in that d) along the conveying path, one or more guide rails (106, 108) are arranged, on which a particular modular unit (BM, BM', AM) may be displaced. a) at least two treatment booths, which each define one treatment chamber; b) a conveying device, by means of which the articles may be conveyed along a conveying path to in each case one of the treatment booths, into the treatment chamber of this treatment booth, out of the treatment chamber of this treatment booth and away from this treatment booth; wherein c) each treatment booth is enclosed in each case by a modular unit (BM, BM') in the form of a treatment module (BM, BM'), which unit may be moved as a unit and is arranged and fixed detachably in an operating position relative to the conveying path, characterized in that d) along the conveying path, one or more guide rails (106, 108) are arranged, on which a particular modular unit (BM, BM', AM) may be displaced.
Spring brake cylinder, in particular parking brake cylinder, for a brake system of a motor vehicle, comprising: - a brake release mechanism, configured to axially contract a brake spring chamber against a brake spring force in a release direction from a parking position to a driving position, - wherein the brake release mechanism comprises a release screw with an external thread, and a running nut, configured to act against the brake spring chamber, with an internal thread movably engaging to the external thread, such that a rotational motion of the release screw results in an axial nut movement of the running nut, and - a brake state indicator, comprising a moveably arranged indicator pin, configured to indicate at an external surface a brake state, wherein - the brake state indicator comprises an actuation element, wherein the actuation element is axially held in a force equilibrium between an actuation spring, exerting an actuation force on the actuation element, and a return spring, exerting a return force on the actuation element, wherein - the actuation force is altered by the nut motion of the running nut such as to shift the force equilibrium, resulting in an axial element movement of the actuation element, and - the actuation element is operatively coupled to the indicator pin such as to transfer the element movement to the indicator pin (134, characterized in that a pin passage axially extends through the release screw, in particular through a release screw head, with a radial offset. - a brake release mechanism, configured to axially contract a brake spring chamber against a brake spring force in a release direction from a parking position to a driving position, - wherein the brake release mechanism comprises a release screw with an external thread, and a running nut, configured to act against the brake spring chamber, with an internal thread movably engaging to the external thread, such that a rotational motion of the release screw results in an axial nut movement of the running nut, and - a brake state indicator, comprising a moveably arranged indicator pin, configured to indicate at an external surface a brake state, wherein - the brake state indicator comprises an actuation element, wherein the actuation element is axially held in a force equilibrium between an actuation spring, exerting an actuation force on the actuation element, and a return spring, exerting a return force on the actuation element, wherein - the actuation force is altered by the nut motion of the running nut such as to shift the force equilibrium, resulting in an axial element movement of the actuation element, and - the actuation element is operatively coupled to the indicator pin such as to transfer the element movement to the indicator pin (134, characterized in that a pin passage axially extends through the release screw, in particular through a release screw head, with a radial offset.
An imaging method using an imaging system according to claims 12 or 13 to carry out the following steps: reconstructing a two-dimensional projection image for each pre-scan from acquired data before a three dimensional volume scan of an object or subject is carried out; identifying a region-of-interest in the two-dimensional projection image(s), wherein the region of interest is a sub-region of a portion of an object or subject in an examination region; determining a set of collimator control parameters based on the one or more two dimensional projection images including the data indicative of a region of interest; and performing the three dimensional volume scan of the region of interest located in the portion of the object or subject in the examination region, including dynamically collimating a radiation beam used to perform the scan so that a geometry and/or location of the radiation beam tracks, during the scan, to a geometry and/or location of the region of interest by employing the set of collimator control parameters to control a collimator collimating the radiation beam to provide a collimation that results in the geometry and/or a location of the radiation beam tracking to the geometry and/or a location of the region of interest and not the portion of the object or subject in the examination region; wherein outer rays of the radiation beam traverse paths that traverse a pre-determined margin about the perimeter of the region of interest, wherein the margin is such that the radiation beam does not traverse the entire portion of the object or subject. reconstructing a two-dimensional projection image for each pre-scan from acquired data before a three dimensional volume scan of an object or subject is carried out; identifying a region-of-interest in the two-dimensional projection image(s), wherein the region of interest is a sub-region of a portion of an object or subject in an examination region; determining a set of collimator control parameters based on the one or more two dimensional projection images including the data indicative of a region of interest; and performing the three dimensional volume scan of the region of interest located in the portion of the object or subject in the examination region, including dynamically collimating a radiation beam used to perform the scan so that a geometry and/or location of the radiation beam tracks, during the scan, to a geometry and/or location of the region of interest by employing the set of collimator control parameters to control a collimator collimating the radiation beam to provide a collimation that results in the geometry and/or a location of the radiation beam tracking to the geometry and/or a location of the region of interest and not the portion of the object or subject in the examination region; wherein outer rays of the radiation beam traverse paths that traverse a pre-determined margin about the perimeter of the region of interest, wherein the margin is such that the radiation beam does not traverse the entire portion of the object or subject.
A laboratory incubator, more particularly a gassing incubator, with an outer housing comprising a door and an inner housing surrounding an internal chamber, which inner housing comprises a floor, a ceiling, three side walls (32, 33, 34) and a lateral surface that can be closed by said door or by an additional inner door, and in which a flow channel is provided which comprises at least one air inlet opening in an end region and at least one air outlet opening in a different end region, said at least one air outlet opening being formed such that effluent air is guided along at least one of the side walls (32, 33, 34) and/or the lateral surface in the peripheral region of said internal chamber, and a heatable water reservoir being disposed within said flow channel such that air flowing in the flow channel is passed across or through said water reservoir.
A multi-fuel power plant comprising: a tank system comprising an alternative fuel tank, a castor oil tank, and an ethanol tank; a fuel treatment system comprising an alternative fuel treatment unit fluidly connected to the at least one alternative fuel tank and configured to treat the alternative fuel and a cleaning fuel treatment unit fluidly connected to the castor oil tank and the ethanol tank and configured to generate a cleaning fuel by mixing the components castor oil and ethanol of the same; a fuel conditioning unit fluidly connected to the alternative fuel treatment unit and the cleaning fuel treatment unit and comprising a fuel selection valve for selecting what type of fuel from which section of the fuel conditioning unit is provided for combustion; an internal combustion engine for operation with the alternative fuel and the cleaning fuel, the internal combustion engine comprising an engine fuel system; a fuel recirculating unit configured to receive fuel from the fuel selection valve of the fuel conditioning unit and to supply the engine fuel system with fuel, the fuel recirculating unit comprising a circulation tank, which is fluidly connected to the fuel conditioning unit and the engine fuel system; and a control unit configured to control the fuel conditioning unit to condition the fuel selected for being provided to the engine fuel system and to provide the same to the circulation tank, thereby allowing switching between alternative fuel operation and cleaning fuel operation while continuously operating the internal combustion engine. a tank system comprising an alternative fuel tank, a castor oil tank, and an ethanol tank; a fuel treatment system comprising an alternative fuel treatment unit fluidly connected to the at least one alternative fuel tank and configured to treat the alternative fuel and a cleaning fuel treatment unit fluidly connected to the castor oil tank and the ethanol tank and configured to generate a cleaning fuel by mixing the components castor oil and ethanol of the same; a fuel conditioning unit fluidly connected to the alternative fuel treatment unit and the cleaning fuel treatment unit and comprising a fuel selection valve for selecting what type of fuel from which section of the fuel conditioning unit is provided for combustion; an internal combustion engine for operation with the alternative fuel and the cleaning fuel, the internal combustion engine comprising an engine fuel system; a fuel recirculating unit configured to receive fuel from the fuel selection valve of the fuel conditioning unit and to supply the engine fuel system with fuel, the fuel recirculating unit comprising a circulation tank, which is fluidly connected to the fuel conditioning unit and the engine fuel system; and a control unit configured to control the fuel conditioning unit to condition the fuel selected for being provided to the engine fuel system and to provide the same to the circulation tank, thereby allowing switching between alternative fuel operation and cleaning fuel operation while continuously operating the internal combustion engine.
Method of displaying of graphical signature representative of the preferences of a plurality of users, comprising the steps of: - on the display screen of a terminal, preliminary displaying (2.1) of a first menu representing a plurality of documents by corresponding graphical identifiers, the first menu being split in a plurality of areas, each document of said plurality being identified by a graphical identifier which is displayed in an area of the first menu which depends on attribute values associated with this document, - by each user of said plurality of users, inputting of commands of selection (2.3) of at least one document at the level of the terminal, the selected document(s) being reputed to be representative of the user's preference, characterized in that the method further comprises the following step: - on the display screen, subsequent displaying (2.6) in a second menu of a plurality of graphical signatures each one being associated with an user, where each displayed signature is determined from the selection of documents selected by its associated user, where each graphical signature of a user is formed by a bar of zones, where each zone of a bar has a specific graphical distinction, where the size of each zone of a bar depends on the number of documents selected by said user into a determined area of the first menu, and where the appearing order of each zones in a bar is the same for all the displayed graphical signatures. - on the display screen of a terminal, preliminary displaying (2.1) of a first menu representing a plurality of documents by corresponding graphical identifiers, the first menu being split in a plurality of areas, each document of said plurality being identified by a graphical identifier which is displayed in an area of the first menu which depends on attribute values associated with this document, - by each user of said plurality of users, inputting of commands of selection (2.3) of at least one document at the level of the terminal, the selected document(s) being reputed to be representative of the user's preference, - on the display screen, subsequent displaying (2.6) in a second menu of a plurality of graphical signatures each one being associated with an user, where each displayed signature is determined from the selection of documents selected by its associated user, where each graphical signature of a user is formed by a bar of zones, where each zone of a bar has a specific graphical distinction, where the size of each zone of a bar depends on the number of documents selected by said user into a determined area of the first menu, and where the appearing order of each zones in a bar is the same for all the displayed graphical signatures.
A process for producing a sheet product comprising: applying an additive composition to a moving creping surface; pressing a base sheet against the creping surface after the additive composition has been applied, the additive composition adhering the base sheet to the creping surface; and removing the base sheet from the creping surface, wherein the additive composition transfers to the base sheet such that the additive composition comprises at least about 1 % of the basis weight of the sheet product, the sheet product containing cellulosic fibers in an amount of at least about 50% by weight and having a bulk of at least about 3 cc/g; and wherein the additive composition comprises a thermoplastic olefin polymer, wherein the olefin polymer comprises an alpha-olefin interpolymer of ethylene and at least one comonomer represented by the formula H 2 C=CHR, wherein R is a C 1 to C 20 linear, branched or cyclic alkyl group, or the olefin polymer comprises an alpha-olefin copolymer of propylene with at least one comonomer selected from the group consisting of ethylene and a compound represented by the formula H 2 C=CHR, wherein R is a C 1 to C 20 linear, branched or cyclic alkyl group. applying an additive composition to a moving creping surface; pressing a base sheet against the creping surface after the additive composition has been applied, the additive composition adhering the base sheet to the creping surface; and removing the base sheet from the creping surface, wherein the additive composition transfers to the base sheet such that the additive composition comprises at least about 1 % of the basis weight of the sheet product, the sheet product containing cellulosic fibers in an amount of at least about 50% by weight and having a bulk of at least about 3 cc/g; and
An elevator request authorization system for use in a building in which an elevator system services a plurality of floors, the elevator request authorization system comprising: one or more servers (21,23) receptive of an elevator request of a user, the one or more servers beingconfigured to authenticate the elevator request and append credential data thereto in accordance with a result of the authentication, wherein the credential data is associated with access rights of the user; and an access control system to which the authenticated elevator request appended with the credential data is passed from the one or more servers (21, 23), the access control system being configured to determine which floors of the plurality of floors the user is authorized to visit based on the credential data with an elevator car being assignable to service the authenticated elevator request in accordance with a determination result. one or more servers (21,23) receptive of an elevator request of a user, the one or more servers beingconfigured to authenticate the elevator request and append credential data thereto in accordance with a result of the authentication, wherein the credential data is associated with access rights of the user; and authenticate the elevator request and append credential data thereto in accordance with a result of the authentication, wherein the credential data is associated with access rights of the user; and an access control system to which the authenticated elevator request appended with the credential data is passed from the one or more servers (21, 23), the access control system being configured to determine which floors of the plurality of floors the user is authorized to visit based on the credential data with an elevator car being assignable to service the authenticated elevator request in accordance with a determination result.
A catheter comprising: an elongated catheter body; a deflection section distal of the catheter body; and a distal electrode assembly distal of the deflection section, the assembly comprising a plurality of spines extending in a common plane, each spine having a plurality of electrodes, a proximal portion and a distal portion, wherein the proximal portion comprises a linear portion and a proximal end, wherein the proximal portions converge at their proximal ends near the distal end of the deflection section and wherein the linear portions are spaced from each other at predetermined separation distances, wherein the distal portion of each spine is joined with the distal portion of one other spine in forming a loop, wherein the loop generally maintains the linear portions at their predetermined separation distances, characterized in that the plurality of spines comprises six spines forming three loops, the three loops intersecting at three locations (X1, X2, X3), wherein the linear portions each comprise four electrodes arranged in a rectangular grid pattern across the three loops. an elongated catheter body; a deflection section distal of the catheter body; and a distal electrode assembly distal of the deflection section, the assembly comprising a plurality of spines extending in a common plane, each spine having a plurality of electrodes, a proximal portion and a distal portion, wherein the proximal portion comprises a linear portion and a proximal end, wherein the proximal portions converge at their proximal ends near the distal end of the deflection section and wherein the linear portions are spaced from each other at predetermined separation distances, wherein the distal portion of each spine is joined with the distal portion of one other spine in forming a loop, wherein the loop generally maintains the linear portions at their predetermined separation distances, characterized in that the plurality of spines comprises six spines forming three loops, the three loops intersecting at three locations (X1, X2, X3), wherein the linear portions each comprise four electrodes arranged in a rectangular grid pattern across the three loops.
Method for producing an electrical circuit, comprising the steps of: providing a prefabricated substrate having a first and a second conductor layer (20, 24) and also a dielectric which is provided between the first and the second conductor layer and the first conductor layer is thicker than the second conductor layer by at least a factor of 3; mounting at least one component to be cooled on the first conductor layer of the prefabricated substrate so as to form a heat-transmitting connection between the component and the first conductor layer, wherein the substrate, before or after the at least one component is mounted, is structured by separating individual substrate sections (12, 14) through the overall thickness of the substrate, wherein at least one of the substrate sections supports at least one component, furthermore an electrical connection between the substrate section on the one hand and an electrical contact interface or a further substrate section is formed, and the substrate sections are moulded after the at least one component is mounted, wherein the individual substrate sections (12, 14) are separated from one another by stamping, by sawing, by cutting, by laser cutting, or by scoring and breaking, wherein a heat sink is further provided, the individual substrate sections being mounted on the said heat sink so as to form heat-transmitting connections between the two conductor layers of the substrate and the heat sink.