mhurhangee/ep-ind-claims huggingface dataset:
A process for manufacturing a thermoset polyester foam, comprising the following successive steps: (a) providing an expandable and thermosetting composition containing - a polyol component comprising at least one element selected from glycerol, diglycerol and glycerol oligomers, - a polyacid component comprising citric acid, - a surfactant selected from alkyl polyglycosides and the mixtures of an anionic surfactant and a cationic surfactant, and - an esterification catalyst, (b) introducing the expandable and thermosetting composition into a mold or applying the expandable composition to a support, (c) heating the expandable and thermosetting composition at a temperature at least equal to 135°C, preferably at least equal to 150°C, so as to react the polyol component with the polyacid component and form a block of thermoset polyester foam. (a) providing an expandable and thermosetting composition containing - a polyol component comprising at least one element selected from glycerol, diglycerol and glycerol oligomers, - a polyacid component comprising citric acid, - a surfactant selected from alkyl polyglycosides and the mixtures of an anionic surfactant and a cationic surfactant, and - an esterification catalyst, - a polyol component comprising at least one element selected from glycerol, diglycerol and glycerol oligomers, - a polyacid component comprising citric acid, - a surfactant selected from alkyl polyglycosides and the mixtures of an anionic surfactant and a cationic surfactant, and - an esterification catalyst, (b) introducing the expandable and thermosetting composition into a mold or applying the expandable composition to a support, (c) heating the expandable and thermosetting composition at a temperature at least equal to 135°C, preferably at least equal to 150°C, so as to react the polyol component with the polyacid component and form a block of thermoset polyester foam.
An apparatus for generating a charged particle beam comprising: a cathode (34, 92) for emitting charged particles to form the beam; an anode configured to accelerate said charged particles along an axis of travel of said charged particle beam; a radiation generating target screen; and a first magnetic element (96, 101) configured to control a beam profile of said charged particle beam in a predetermined plane by causing strength of a component of a magnetic field along said axis of travel to be different at said predetermined plane than at said cathode, said first magnetic element positioned on the opposite side of the cathode from said particle emission, wherein an axis from one pole of said first magnetic element to the opposite pole of said first magnetic element is aligned with said axis of travel of said charged particle beam within an angular range that is less than 30 degrees; beam-deflection elements for directing said charged particle beam to a plurality of positions in said predetermined plane; wherein said charged particles are emitted toward the radiation generating target screen (91, 114, 202), wherein a second magnetic element is positioned around said target screen to generate a magnetic field at said target screen, wherein the polarity of said first magnetic element is opposite the polarity of said second magnetic element so that the directions of the magnetic fields of said first and second magnetic elements along said axis of travel are opposite to one another. a cathode (34, 92) for emitting charged particles to form the beam; an anode configured to accelerate said charged particles along an axis of travel of said charged particle beam; a radiation generating target screen; and a first magnetic element (96, 101) configured to control a beam profile of said charged particle beam in a predetermined plane by causing strength of a component of a magnetic field along said axis of travel to be different at said predetermined plane than at said cathode, said first magnetic element positioned on the opposite side of the cathode from said particle emission, wherein an axis from one pole of said first magnetic element to the opposite pole of said first magnetic element is aligned with said axis of travel of said charged particle beam within an angular range that is less than 30 degrees; beam-deflection elements for directing said charged particle beam to a plurality of positions in said predetermined plane; wherein said charged particles are emitted toward the radiation generating target screen (91, 114, 202), wherein a second magnetic element is positioned around said target screen to generate a magnetic field at said target screen, wherein the polarity of said first magnetic element is opposite the polarity of said second magnetic element so that the directions of the magnetic fields of said first and second magnetic elements along said axis of travel are opposite to one another.
A method (400, 500, 600) for establishing a communication connection between a first network entity and a second network entity via at least two different network flows, the method comprising: transmitting a first request (401, 501, 601), by the first network entity, directed to the second network entity via a first network flow; transmitting at least one second request (402, 502, 602), by the first network entity, directed to the second network entity via at least one second network flow, wherein the at least one second request (402, 502, 602) is transmitted by the first network entity before the first network entity receives a reply (403, 603) to the first request (401, 501, 601) from the second network entity; and establishing the communication connection between the first network entity and the second network entity based on at least one of the first request (401, 501, 601) or the at least one second request (402, 502, 602), characterized in that transmitting the first request (401, 501, 601) comprises information (MP_CAPABLE, Key A) indicating the first network flow to be configured as primary network flow; and transmitting the at least one second request (402, 502, 602) comprises information (MP_CAPABLE, Key A) indicating the at least one second network flow also to be configured as primary network flow. transmitting a first request (401, 501, 601), by the first network entity, directed to the second network entity via a first network flow; transmitting at least one second request (402, 502, 602), by the first network entity, directed to the second network entity via at least one second network flow, wherein the at least one second request (402, 502, 602) is transmitted by the first network entity before the first network entity receives a reply (403, 603) to the first request (401, 501, 601) from the second network entity; and establishing the communication connection between the first network entity and the second network entity based on at least one of the first request (401, 501, 601) or the at least one second request (402, 502, 602),
A hybrid rotor (200, 690, 790, 890) of a gas turbine engine comprising: a rotor disk (210, 610, 710, 810) having a peripheral rim; and a plurality of hollow rotor blades (220, 692, 792, 892, 900) extending outwardly from the rotor disk; characterized by: a plurality of solid rotor blades (300, 694, 794, 894) extending outwardly from the rotor disk in a blade array with the plurality of hollow rotor blades. a rotor disk (210, 610, 710, 810) having a peripheral rim; and a plurality of hollow rotor blades (220, 692, 792, 892, 900) extending outwardly from the rotor disk; characterized by: a plurality of solid rotor blades (300, 694, 794, 894) extending outwardly from the rotor disk in a blade array with the plurality of hollow rotor blades.
Electrical contact arrangement for high-voltage applications, having a first contact piece and a second contact piece, characterized in that, in order to establish electrical contact, the second contact piece can be clamped, by rotating a clamping rod which is connected to the first contact piece, is rotatably mounted and is eccentric at least in sections, between the first contact piece and the clamping rod, wherein the contact arrangement (1, 10) is designed to conduct currents above 1 MA.
Brake system for a motor vehicle having at least two axles, in particular for a utility vehicle, having at least two wheel brake devices (8a-8f), which each comprise a service brake actuator (10a-10f) and a spring-type brake actuator (12a-12f) which can be released by way of a control pressure source and a control line, it being possible, on each of the at least two axles, to actuate at least one wheel brake device (8a-8f) in each case by means of a service brake actuation device and a parking brake actuation device, wherein the brake system has a function for supporting the ride height adjustment, with which at least one wheel brake device (8c, 8d; 8e, 8f) for immobilizing the motor vehicle can be actuated by means of the spring force of the spring-type brake actuator (12c, 12d) assigned to this device, characterized in that the control pressure source for releasing he spring-type brake actuator (12a, 12b; 12e, 12f) of at least one further wheel brake device (8a, 8b; 8e, 8f) is a pressure circuit of the service brake actuation device.
Brush, said brush being manually operable but adaptable to an automatic operating system for cleaning automobile rims or any other stackable object, characterized in that it is in a self-assembly kit form and necessarily comprises a handle, a cleaning head comprising a horizontal body and, optionally, a main vertical body, or a secondary vertical body, or a functional unit formed by a horizontal body and a main vertical body, and accessories whose presence is not compulsory, i.e. a base, a tank, pipes, a press, a crank provided with its cylindrical hollow sleeve, a specific coating covering the active faces provided with orifices, said horizontal body because operating in horizontal position being composed of an inner portion of thin thickness which has in the frontal plane a concave shape matching the rounded shape of the rim and being able to be subdivided into several branches giving the simple, double, multiple, double body shapes and an outer portion also of thin thickness which is inclined relative to the plane of the inner portion at a specific lateral angle which can vary from 0 to 90°, said outer portion being rounded or flat or having any intermediate shape, and which can have angles, broken pieces.
A method for oxidatively dyeing keratin fibers, the method comprising the following method steps in the sequence indicated: a) applying a cosmetic agent to the keratin fibers, the cosmetic agent being applied only to individual strands, b) allowing the agent to act on the keratin fibers for a period of from 30 seconds to 40 minutes, c) applying a cosmetic agent to the keratin fibers that have been subjected to the cosmetic agent, d) allowing the cosmetic agents and to act on the keratin fibers for a period of from 1 to 70 minutes, e) rinsing off the cosmetic agents and, characterized in that - the cosmetic agent contains at least one direct dye (M1-1), and contains at least one thickening agent (M1-2), does not contain any oxidation dye precursors (M1-3), has a pH of from 9.2 to 10.5, has a dynamic viscosity of from 10,000 to 50,000 mPa*s, measured using Brookfield RDV II+, spindle no. 4, 4 rpm, 20 °C, - the cosmetic agent contains at least one oxidation dye precursor (M2-1), and contains at least one oxidizing agent (M2-2), - and the cosmetic agent and the cosmetic agent have identical pH values. a) applying a cosmetic agent to the keratin fibers, the cosmetic agent being applied only to individual strands, b) allowing the agent to act on the keratin fibers for a period of from 30 seconds to 40 minutes, c) applying a cosmetic agent to the keratin fibers that have been subjected to the cosmetic agent, d) allowing the cosmetic agents and to act on the keratin fibers for a period of from 1 to 70 minutes, e) rinsing off the cosmetic agents and, - the cosmetic agent contains at least one direct dye (M1-1), and contains at least one thickening agent (M1-2), does not contain any oxidation dye precursors (M1-3), has a pH of from 9.2 to 10.5, has a dynamic viscosity of from 10,000 to 50,000 mPa*s, measured using Brookfield RDV II+, spindle no. 4, 4 rpm, 20 °C, contains at least one direct dye (M1-1), and contains at least one thickening agent (M1-2), does not contain any oxidation dye precursors (M1-3), has a pH of from 9.2 to 10.5, has a dynamic viscosity of from 10,000 to 50,000 mPa*s, measured using Brookfield RDV II+, spindle no. 4, 4 rpm, 20 °C, - the cosmetic agent contains at least one oxidation dye precursor (M2-1), and contains at least one oxidizing agent (M2-2), contains at least one oxidation dye precursor (M2-1), and contains at least one oxidizing agent (M2-2), - and the cosmetic agent and the cosmetic agent have identical pH values.
A method, performed by a computing device, comprising: capturing, by the computing device, one or more images from a depth camera, wherein the one or more images include depth information; generating, by the computer device, an initial sculpture for an entity in the captured one or more images; performing, by the computer device, a ray casting process on the generated initial sculpture using the depth information; and deforming, by the computer device, the initial sculpture based on the ray casting process to generate a sculpture for the entity; and wherein the initial sculpture includes a mesh polygon with vertices and triangular faces, and wherein performing the ray casting process on the generated initial sculpture using the depth information includes: casting a ray from an origin point to a particular data point included in the depth information; determining an intersection point of the cast ray with a particular triangular face of the mesh polygon; calculating a force vector to move the intersection point to the particular data point; and determining a vertex force vector for a vertex of the particular triangular face based on the calculated force vector. capturing, by the computing device, one or more images from a depth camera, wherein the one or more images include depth information; generating, by the computer device, an initial sculpture for an entity in the captured one or more images; performing, by the computer device, a ray casting process on the generated initial sculpture using the depth information; and deforming, by the computer device, the initial sculpture based on the ray casting process to generate a sculpture for the entity; and wherein the initial sculpture includes a mesh polygon with vertices and triangular faces, and wherein performing the ray casting process on the generated initial sculpture using the depth information includes: casting a ray from an origin point to a particular data point included in the depth information; determining an intersection point of the cast ray with a particular triangular face of the mesh polygon; calculating a force vector to move the intersection point to the particular data point; and determining a vertex force vector for a vertex of the particular triangular face based on the calculated force vector. casting a ray from an origin point to a particular data point included in the depth information; determining an intersection point of the cast ray with a particular triangular face of the mesh polygon; calculating a force vector to move the intersection point to the particular data point; and determining a vertex force vector for a vertex of the particular triangular face based on the calculated force vector.
An information processing apparatus comprising: a video generation section configured to generate, on a basis of head posture information of a user, a video resulting from control of an angle of view of a virtual camera, the angle of view of the virtual camera corresponding to a field of view of the user within a virtual space, wherein when the user is in a non-acceleration state in the virtual space, the video generation section is configured to generate the video based on a first angle of view of the virtual camera, and wherein when the user is in an acceleration state with acceleration applied in a direction in the virtual space, the video generation section is configured to change the angle of view of the virtual camera from the first angle of view at a time when the user is in the non-acceleration state to a second angle of view based on the acceleration direction of the user in the virtual space and to generate the video based on the second angle of view of the virtual camera in order to induce a visual righting reflex on the user in the real space. a video generation section configured to generate, on a basis of head posture information of a user, a video resulting from control of an angle of view of a virtual camera, the angle of view of the virtual camera corresponding to a field of view of the user within a virtual space, wherein when the user is in a non-acceleration state in the virtual space, the video generation section is configured to generate the video based on a first angle of view of the virtual camera, and wherein when the user is in an acceleration state with acceleration applied in a direction in the virtual space, the video generation section is configured to change the angle of view of the virtual camera from the first angle of view at a time when the user is in the non-acceleration state to a second angle of view based on the acceleration direction of the user in the virtual space and to generate the video based on the second angle of view of the virtual camera in order to induce a visual righting reflex on the user in the real space.
An antenna for a ground-penetration radar system, the antenna comprising: a housing defining a cavity having an opening, the cavity containing: a radiator on a first surface of a planar substrate, the radiator comprising a planar, bow-tie shaped conducting layer on or adjacent to the first surface of the substrate; wherein the antenna further comprises: a wear-block formed of a solid dielectric located between the radiator and the opening to the cavity for providing mechanical protection to the radiator, the wear-block abutting the radiator; and an absorber assembly located on an opposite side of the radiator from the opening, the absorber assembly comprising a microwave absorber and a first dielectric layer, wherein the first dielectric layer is located between the radiator and the microwave absorber. a radiator on a first surface of a planar substrate, the radiator comprising a planar, bow-tie shaped conducting layer on or adjacent to the first surface of the substrate; wherein the antenna further comprises: a wear-block formed of a solid dielectric located between the radiator and the opening to the cavity for providing mechanical protection to the radiator, the wear-block abutting the radiator; and an absorber assembly located on an opposite side of the radiator from the opening, the absorber assembly comprising a microwave absorber and a first dielectric layer, wherein the first dielectric layer is located between the radiator and the microwave absorber. a wear-block formed of a solid dielectric located between the radiator and the opening to the cavity for providing mechanical protection to the radiator, the wear-block abutting the radiator; and an absorber assembly located on an opposite side of the radiator from the opening, the absorber assembly comprising a microwave absorber and a first dielectric layer, wherein the first dielectric layer is located between the radiator and the microwave absorber.
Method for preparing isotianil which includes the steps of (a) reaction in an organic aprotic solvent, of 3,4-dichloroisothiazole-5-carbonyl chloride of the formula with 2-cyanoaniline (2-aminobenzonitrile) of the formula under reflux and optionally reduced pressure, and (b) filtration and washing, wherein in step (a) preferably one of the reactants is initially charged in the solvent and heated, and the second reactant is subsequently metered in, characterized in that the organic aprotic solvent is selected from a group consisting of benzene, toluene, o -xylene, m -xylene and p -xylene, preferably toluene. (a) reaction in an organic aprotic solvent, of 3,4-dichloroisothiazole-5-carbonyl chloride of the formula with 2-cyanoaniline (2-aminobenzonitrile) of the formula under reflux and optionally reduced pressure, and (b) filtration and washing,
Method for operating a control device of a motor vehicle, wherein the control device is configured for fully automatic guidance of the motor vehicle, in which driving situation data, comprising environment data of at least one environment sensor of the motor vehicle, which are supplied to the control device are evaluated, wherein a collision probability for the occurrence of a collision with a foreign object is determined in the control device by further evaluation of the driving situation data, wherein, if a threshold value for the collision probability is exceeded, a trigger signal is generated, the presence of which initiates continuous storage of at least part of the current environment data in a storage means of the control device in a period of time until at least the occurrence of the collision and/or until the collision probability falls below the and/or a further threshold value, so that it can be retrieved at a later time, wherein at least part of the environment data stored in an earlier period of time is deleted when the trigger signal is received if the free memory space of the storage means is below a limit value.
Labelling machine (1, 19, 20, 22, 24) for the labelling of containers, in particular of beverage containers, comprising - a transport device for transporting the containers which are to be labelled, - a rotatably mounted vacuum drum for the transporting of labels and for transferring the labels onto the containers which are to be labelled, and - at least one label suction device adjacent to the vacuum drum, and, in relation to the direction of transport of the transport device, arranged behind the vacuum drum, which comprises a label guide with permeable suction openings, characterised in that the label suction device comprises several suction segments (13a-13f) arranged behind one another on the label guide in their direction of longitudinal extension thereof for providing a suction pressure on the label guide, wherein in each case a partition wall is arranged between adjacent suction segments (13a-13f), and wherein the label suction device comprises a pressure influencing unit for influencing the pressure in at least one of the suction segments (13a-13f) and at least one further pressure influencing unit for influencing the pressure in at least one other of the suction segments (13a-13f). - a transport device for transporting the containers which are to be labelled, - a rotatably mounted vacuum drum for the transporting of labels and for transferring the labels onto the containers which are to be labelled, and - at least one label suction device adjacent to the vacuum drum, and, in relation to the direction of transport of the transport device, arranged behind the vacuum drum, which comprises a label guide with permeable suction openings,