mhurhangee/ep-ind-claims huggingface dataset:
A molding composition of at least the following 3 components: a) a polypropylene or polypropylene random copolymer; b) a selectively hydrogenated styrene diene block copolymer having the general formula of S-HD-S or (S-HD) x -Z, where S is polymerized block of monoalkenyl aromatic hydrocarbon monomers, HD is a hydrogenated block of polymerized conjugated diene monomer or monomers, and Z is a coupling agent, and x is the number of arms which can vary from 1 to 20, and c) a clarifying agent of Formula wherein R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, R 9, and R 10 are each independently selected from the group consisting of hydrogen, alkyl groups, alkoxy groups, alkenyl groups, aryl groups, caboxyl groups, and halogens; and R 11 is a hydroxyalkyl group selected from the group consisting of -CH 2 OH and -CHOHCH 2 OH, the molding composition comprising: at least about 70% by weight of component a), and up to 30% of a block copolymer composition, the block copolymer composition comprising at least one component b) and at least 2500 ppm of component c), wherein the difference in refraction index of said block copolymer composition and component a) is +/- 0.008 refractive index units or less measured with refractometer and the glass transition temperature of the HD block is -50°C to -55°C as measured by DSC. a) a polypropylene or polypropylene random copolymer; b) a selectively hydrogenated styrene diene block copolymer having the general formula of S-HD-S or (S-HD) x -Z, where S is polymerized block of monoalkenyl aromatic hydrocarbon monomers, HD is a hydrogenated block of polymerized conjugated diene monomer or monomers, and Z is a coupling agent, and x is the number of arms which can vary from 1 to 20, and c) a clarifying agent of Formula wherein R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, R 9, and R 10 are each independently selected from the group consisting of hydrogen, alkyl groups, alkoxy groups, alkenyl groups, aryl groups, caboxyl groups, and halogens; and R 11 is a hydroxyalkyl group selected from the group consisting of -CH 2 OH and -CHOHCH 2 OH, at least about 70% by weight of component a), and up to 30% of a block copolymer composition, the block copolymer composition comprising at least one component b) and at least 2500 ppm of component c),
A concrete dispensing boom for static and mobile concrete pumps, having multiple boom arms which are connected to one another at joints, and having a concrete delivery conduit which is composed of multiple pipe segments which are articulatedly connected to one another preferably by way of pipe bends and rotary couplings and which are guided along and fastened to the individual boom arms, wherein at least one of the boom arms has a hollow chamber profile with at least two hollow chambers (24, 26) which are separated from one another by a partition and of which at least one is closed and one is circumferentially open, and in that the pipe segment associated with the respective boom arm is arranged on the opening side outside, partially within or entirely within the open hollow chamber, characterized in that the boom arm which has the hollow chamber profile is configured as a box with an upper flange and a lower flange, which box has a first side wall which is set back in relation to the upper flange and the lower flange and which acts as a partition, and which box has a second side wall which is spaced apart from the first side wall, wherein the upper flange and the lower flange together with the first side wall and the second side wall define the at least one closed hollow chamber, and the first side wall together with the upper flange and the lower flange form the open hollow chamber.
A smoking article comprising: an aerosol generating substrate; a mouthpiece; and a wrapper wrapped around at least a portion of the mouthpiece and at least a portion of the aerosol generating substrate to secure the mouthpiece to the aerosol generating substrate, wherein the wrapper comprises: a sheet material extending in a first direction in which the wrapper is wrapped around the mouthpiece and the aerosol generating substrate, and a second direction perpendicular to the first direction; and a window in the sheet material, the window having a perimeter, wherein any linear segment) of the perimeter forming an angle of less than 10 degrees with respect to the second direction has a length of less than 0.5 millimetres, wherein any curved portion of the perimeter having a continuum of tangents each forming an angle of less than 10 degrees with respect to the second direction has a length of less than 0.5 millimetres, wherein such linear segments and curved portions of the perimeter are spaced apart by a distance of at least 0.5 millimetres along the length of the perimeter, and wherein the perimeter includes at least one linear segment forming an angle of less than 10 degrees with respect to the second direction and having a length of less than 0.5 millimetres and wherein the window has a width of at least about 2 millimetres. an aerosol generating substrate; a mouthpiece; and a wrapper wrapped around at least a portion of the mouthpiece and at least a portion of the aerosol generating substrate to secure the mouthpiece to the aerosol generating substrate, wherein the wrapper comprises: a sheet material extending in a first direction in which the wrapper is wrapped around the mouthpiece and the aerosol generating substrate, and a second direction perpendicular to the first direction; and a window in the sheet material, the window having a perimeter, a sheet material extending in a first direction in which the wrapper is wrapped around the mouthpiece and the aerosol generating substrate, and a second direction perpendicular to the first direction; and a window in the sheet material, the window having a perimeter, wherein any linear segment) of the perimeter forming an angle of less than 10 degrees with respect to the second direction has a length of less than 0.5 millimetres, wherein any curved portion of the perimeter having a continuum of tangents each forming an angle of less than 10 degrees with respect to the second direction has a length of less than 0.5 millimetres, wherein such linear segments and curved portions of the perimeter are spaced apart by a distance of at least 0.5 millimetres along the length of the perimeter, and wherein the perimeter includes at least one linear segment forming an angle of less than 10 degrees with respect to the second direction and having a length of less than 0.5 millimetres and wherein the window has a width of at least about 2 millimetres.
A tire parameter value deriving method for deriving a tire dynamic element parameter value indicating a cornering characteristic of a tire based on a tire dynamic model constituted by using a plurality of tire dynamic element parameters, the tire dynamic model being for calculating a lateral force and for calculating a self-aligning torque separately as a lateral force-based torque component generated by the lateral force applied on a contact patch of the tire and a longitudinal force-based torque component generated by a longitudinal force applied on the contact patch of the tire, the method comprising: a data acquisition step of acquiring measured data including data of the lateral force and the self-aligning torque of the tire under a plurality of measurement conditions; and a parameter value deriving step of deriving the tire dynamic element parameter values including a parameter for determining the lateral force-based torque component and a parameter for determining the longitudinal force-based torque component such that an error between the respective measured data of the lateral force and the self-aligning torque and respective corresponding data of the lateral force and the self-aligning torque calculated by the tire dynamic model is a predetermined value or less. a data acquisition step of acquiring measured data including data of the lateral force and the self-aligning torque of the tire under a plurality of measurement conditions; and a parameter value deriving step of deriving the tire dynamic element parameter values including a parameter for determining the lateral force-based torque component and a parameter for determining the longitudinal force-based torque component such that an error between the respective measured data of the lateral force and the self-aligning torque and respective corresponding data of the lateral force and the self-aligning torque calculated by the tire dynamic model is a predetermined value or less.
A coffee machine comprising: a frame; a supporting body mounted to the frame and designed to deliver hot water for producing a beverage; a filter-holder designed to be fillable with a brewing material and to be releasably coupleable to the supporting body to receive hot water therefrom for brewing the brewing material and producing a beverage; a user interface to allow a user to control operation of the coffee machine; characterised in that the user interface is configured to sense one or different actions by a user on the filter-holder or one or different forces applied by a user to the frame either directly or indirectly, through the filter-holder, and to cause beverage delivery to start and stop in response to sensed actions or forces. a frame; a supporting body mounted to the frame and designed to deliver hot water for producing a beverage; a filter-holder designed to be fillable with a brewing material and to be releasably coupleable to the supporting body to receive hot water therefrom for brewing the brewing material and producing a beverage; a user interface to allow a user to control operation of the coffee machine; characterised in that the user interface is configured to sense one or different actions by a user on the filter-holder or one or different forces applied by a user to the frame either directly or indirectly, through the filter-holder, and to cause beverage delivery to start and stop in response to sensed actions or forces.
An extreme ultraviolet inspection system comprising: a light source directed to an inspected surface, wherein the inspected surface is one of an EUV blank mask, an EUV patterned mask, and a patterned wafer fabricated using the EUV patterned mask; a detector for detecting light deflected from the inspected surface, the detector including a plurality of sensor modules; and an optic configuration for directing the light from the inspected surface to the detector, the optic configuration including a plurality of mirrors (M1-M4) that provide magnification of at least 100X within an optical path less than 5 meters long, wherein the optic configuration includes: one of a scintillator for converting EUV light into visible light and a photocathode for converting EUV light Into electrons; four mirrors (M1-M4) in an unobscured configuration, the unobscured configuration directing light from the inspected surface to the scintillator/photocathode in four bounces; and a magnifying system coupled between the scintillator/photocathode and the detector for further magnification; characterised in that the optic configuration further comprises a double aperture component wherein the double aperture component comprises an illumination aperture and a detection aperture which are separated by a distance from one another. a light source directed to an inspected surface, wherein the inspected surface is one of an EUV blank mask, an EUV patterned mask, and a patterned wafer fabricated using the EUV patterned mask; a detector for detecting light deflected from the inspected surface, the detector including a plurality of sensor modules; and an optic configuration for directing the light from the inspected surface to the detector, the optic configuration including a plurality of mirrors (M1-M4) that provide magnification of at least 100X within an optical path less than 5 meters long, wherein the optic configuration includes: one of a scintillator for converting EUV light into visible light and a photocathode for converting EUV light Into electrons; four mirrors (M1-M4) in an unobscured configuration, the unobscured configuration directing light from the inspected surface to the scintillator/photocathode in four bounces; and a magnifying system coupled between the scintillator/photocathode and the detector for further magnification; one of a scintillator for converting EUV light into visible light and a photocathode for converting EUV light Into electrons; four mirrors (M1-M4) in an unobscured configuration, the unobscured configuration directing light from the inspected surface to the scintillator/photocathode in four bounces; and a magnifying system coupled between the scintillator/photocathode and the detector for further magnification; characterised in that the optic configuration further comprises a double aperture component wherein the double aperture component comprises an illumination aperture and a detection aperture which are separated by a distance from one another.
Measuring device comprising a first component group and a second component group, wherein the component groups (1, 2) are arranged so as to be rotatable relative to one another about an axis, wherein the first component group has a scanning component (1.1; 1.1') having a first substrate (1.11), and the second component group has a scale component (2.1) having a second substrate (2.11) and an angle scale (2.13), such that a relative angular position between the first component group and the second component group is determinable by the measuring device, characterized in that the measuring device additionally has a passive sensor arrangement (1.12; 2.12) having conductor trace structures (1.121, 1.122, 1.123, 1.124, 2.121, 2.122, 2.123, 2.124) wherein - on the scanning component (1.1; 1.1'), the conductor trace structures (1.121, 1.122, 1.123, 1.124; 2.121) are applied by way of an additive construction on the first substrate (1.11), such that a torsional load of the first substrate (1.11) about the axis is determinable by the sensor arrangement (1.12), or - on the scale component (2.1), the conductor trace structures (2.121, 2.122, 2.123, 2.124) are applied by way of an additive construction on the second substrate (2.11), such that a torsional load of the second substrate (2.11) about the axis is determinable by the sensor arrangement (2.12). the first component group has a scanning component (1.1; 1.1') having a first substrate (1.11), and the second component group has a scale component (2.1) having a second substrate (2.11) and an angle scale (2.13), such that a relative angular position between the first component group and the second component group is determinable by the measuring device, characterized in that the measuring device additionally has a passive sensor arrangement (1.12; 2.12) having conductor trace structures (1.121, 1.122, 1.123, 1.124, 2.121, 2.122, 2.123, 2.124) wherein - on the scanning component (1.1; 1.1'), the conductor trace structures (1.121, 1.122, 1.123, 1.124; 2.121) are applied by way of an additive construction on the first substrate (1.11), such that a torsional load of the first substrate (1.11) about the axis is determinable by the sensor arrangement (1.12), or - on the scale component (2.1), the conductor trace structures (2.121, 2.122, 2.123, 2.124) are applied by way of an additive construction on the second substrate (2.11), such that a torsional load of the second substrate (2.11) about the axis is determinable by the sensor arrangement (2.12). - on the scanning component (1.1; 1.1'), the conductor trace structures (1.121, 1.122, 1.123, 1.124; 2.121) are applied by way of an additive construction on the first substrate (1.11), such that a torsional load of the first substrate (1.11) about the axis is determinable by the sensor arrangement (1.12), or - on the scale component (2.1), the conductor trace structures (2.121, 2.122, 2.123, 2.124) are applied by way of an additive construction on the second substrate (2.11), such that a torsional load of the second substrate (2.11) about the axis is determinable by the sensor arrangement (2.12).
Fastening arrangement for fastening a component, in particular a cabin component, to a structural component of an aircraft or spacecraft, comprising: a structural component which comprises a connection surface; a fastening fitting which has a geometry matched to the geometrical shape of the structural component, has a connection portion associated with the connection surface of the structural component and is produced from a thermoplastic injection-moulding material, characterised in that the fastening fitting and the structural component have matched trapezium-shaped cross-sectional geometries and matched foot portions (6, 7; 16, 17); and an elastomeric adhesive joint for stable fastening of the connection portion of the fastening fitting to the associated connection surface of the structural component. a structural component which comprises a connection surface; a fastening fitting which has a geometry matched to the geometrical shape of the structural component, has a connection portion associated with the connection surface of the structural component and is produced from a thermoplastic injection-moulding material, characterised in that the fastening fitting and the structural component have matched trapezium-shaped cross-sectional geometries and matched foot portions (6, 7; 16, 17); and an elastomeric adhesive joint for stable fastening of the connection portion of the fastening fitting to the associated connection surface of the structural component.
Housing for electrical equipment, with a first part with a first wall having an outer wall surface, and with a second part with a second wall having an inner wall surface, wherein the first wall and the second wall have an overlap region, and wherein the first part and the second part are connected along the periphery of the wall surfaces (28, 30) by means of a rotational friction weld seam arranged in the overlap region, characterised in that the rotational friction weld seam has at least one compact zone and a mixed zone, wherein the compact zone is produced by fully melted material, wherein the mixed zone is arranged in or on an axial edge region of the overlap region, i.e. along the rotation axis at the location of the transition from the overlap region to the first part or to the second part, wherein the mixed zone contains partially melted material, wherein the mixed zone has a higher resilience than the compact zone, and wherein the housing is formed explosion-protected with the protection type of pressure-resistant encapsulation (Ex-d) and/or the protection type of increased safety (Ex-e).
A pressure sensor (102, 200) comprising: a multi-layered capacitor (106, 202, 500) comprising a first dielectric outer layer, a second dielectric outer layer, a first conductive layer, a second conductive layer, and a third conductive layer, wherein the first conductive layer and the third conductive layer are conductively-coupled together and to a first lead (220, 516), wherein the second conductive layer is conductively-coupled to a second lead (222, 518); a first set of ridges (108, 204, 300) formed onthe first dielectric outer layer, the first set of ridges extending outward from the first dielectric outer layer and defining a plurality of grooves (110, 302); and a second set of ridges (206, 400) formed on the second dielectric outer layer, wherein the second set of ridges extends outward from the second dielectric outer layer, and wherein ridges of the second set of ridges are aligned with grooves of the plurality of grooves (110, 302) such that, when a force is applied to the pressure sensor and compresses the pressure sensor against an object located beneath the pressure sensor, the force increases a surface area of the capacitor by corrugating the capacitor along the first set of ridges (108, 204, 300) and the second set of ridges (206, 400). a multi-layered capacitor (106, 202, 500) comprising a first dielectric outer layer, a second dielectric outer layer, a first conductive layer, a second conductive layer, and a third conductive layer, wherein the first conductive layer and the third conductive layer are conductively-coupled together and to a first lead (220, 516), wherein the second conductive layer is conductively-coupled to a second lead (222, 518); a first set of ridges (108, 204, 300) formed onthe first dielectric outer layer, the first set of ridges extending outward from the first dielectric outer layer and defining a plurality of grooves (110, 302); and a second set of ridges (206, 400) formed on the second dielectric outer layer, wherein the second set of ridges extends outward from the second dielectric outer layer, and wherein ridges of the second set of ridges are aligned with grooves of the plurality of grooves (110, 302) such that, when a force is applied to the pressure sensor and compresses the pressure sensor against an object located beneath the pressure sensor, the force increases a surface area of the capacitor by corrugating the capacitor along the first set of ridges (108, 204, 300) and the second set of ridges (206, 400).
A packaged aqueous oral care composition comprising a container and a composition wherein the composition comprises at least one water-soluble source of Sn 2+ ions and wherein the container comprises an inner surface at least partially formed from a linear polymer, wherein the linear polymer is a homopolymer or a copolymer of monomers having the structure: wherein R 1 and R 2 are the same or different and are independently selected from a hydrogen atom, an alkyl group, an alkenyl group, a halogen atom and a nitrile group; and wherein the composition is a mouthrinse.