mhurhangee/patent-ind-claim-en huggingface dataset:
A bottle comprising a bottle body made of plastics material and a seal , wherein the bottle body comprises: - a shoulder , - a neck integrally formed on the shoulder and having a dispensing opening which can be closed by the seal , - a base which has a stacking recess projecting into a receiving space of the bottle body , which stacking recess is suitable for completely receiving the seal and the neck of an identically constructed bottle , such that when an upper bottle is stacked on a lower bottle , the weight of the upper bottle rests completely on the shoulder of the lower bottle , - a shell region which extends between the shoulder and the base in a vertical direction of the bottle body and has a front wall , a rear wall opposite the front wall and two side walls arranged between the front wall and the rear wall , characterized in that a cross section of the bottle body , which lies in a horizontal plane extending perpendicularly to the vertical direction, is constant in shape and size over the entire height of the shell region , wherein a sleeve designed as a stretch sleeve rests on an outer face of the shell region . - a shoulder , - a neck integrally formed on the shoulder and having a dispensing opening which can be closed by the seal , - a base which has a stacking recess projecting into a receiving space of the bottle body , which stacking recess is suitable for completely receiving the seal and the neck of an identically constructed bottle , such that when an upper bottle is stacked on a lower bottle , the weight of the upper bottle rests completely on the shoulder of the lower bottle , - a shell region which extends between the shoulder and the base in a vertical direction of the bottle body and has a front wall , a rear wall opposite the front wall and two side walls arranged between the front wall and the rear wall ,
Circuit for managing transients and process and product anomalies, placed in a plant for the production of polymer granules or polymer extruded products, along which are positioned: - a mixing device suitable for mixing additives and expanding agent within a stream of molten polymer; - a polymer granulator or an extrusion device, positioned downstream of the mixing device ; - a deviation valve suitable for molten polymers, placed along the line connecting the mixing device to the polymer granulator or to the extrusion device, upstream of said granulator or extruder; said deviation valve being provided with at least one inlet (A), a Stand-by position (A→C) and a Run position (A→B); said circuit being characterized in that it comprises a heating device downstream of said valve, a separation device downstream of the heating device, suitable for physically separating the blowing agent from the polymer and any additives present therein, and a cooling device positioned between the separation device and the mixing device . - a mixing device suitable for mixing additives and expanding agent within a stream of molten polymer; - a polymer granulator or an extrusion device, positioned downstream of the mixing device ; - a deviation valve suitable for molten polymers, placed along the line connecting the mixing device to the polymer granulator or to the extrusion device, upstream of said granulator or extruder; said deviation valve being provided with at least one inlet (A), a Stand-by position (A→C) and a Run position (A→B);
Ventilation, heating and/or air-conditioning installation comprising at least: - a housing delimiting at least one circulation chamber for an air stream, - at least a first heat exchanger , a second heat exchanger and a third heat exchanger each configured to produce a heat exchange between the air stream and a refrigerant flowing through a refrigerant circuit, the first heat exchanger , the second heat exchanger and the third heat exchanger being part of the same refrigerant circuit, the circulation chamber comprising a first duct , a second duct and a zone arranged to supply an air stream to the first duct and/or the second duct , the first duct and the second duct emerging in a mixing chamber , characterized in that the zone comprises the first heat exchanger , the second duct comprising the second heat exchanger and the third heat exchanger . - a housing delimiting at least one circulation chamber for an air stream, - at least a first heat exchanger , a second heat exchanger and a third heat exchanger each configured to produce a heat exchange between the air stream and a refrigerant flowing through a refrigerant circuit, the first heat exchanger , the second heat exchanger and the third heat exchanger being part of the same refrigerant circuit,
A method to generate an autonomous driving route of an autonomous vehicle on a road, the method comprising: receiving an input image of a front view captured from the autonomous vehicle; calculating a gradient between the autonomous vehicle and the ground based on the input image; and generating the autonomous driving route based on the calculated gradient, CHARACTERIZED IN THAT calculating the gradient comprises: detecting _a lane marking in the input image; detecting a vanishing point of the detected lane marking based on the lane marking; receiving a location of a preset vanishing point and a location of the detected vanishing point; and calculating the gradient based on a difference between the location of the preset vanishing point and the location of the detected vanishing point. receiving an input image of a front view captured from the autonomous vehicle; calculating a gradient between the autonomous vehicle and the ground based on the input image; and generating the autonomous driving route based on the calculated gradient, CHARACTERIZED IN THAT calculating the gradient comprises: detecting _a lane marking in the input image; detecting a vanishing point of the detected lane marking based on the lane marking; receiving a location of a preset vanishing point and a location of the detected vanishing point; and calculating the gradient based on a difference between the location of the preset vanishing point and the location of the detected vanishing point. detecting _a lane marking in the input image; detecting a vanishing point of the detected lane marking based on the lane marking; receiving a location of a preset vanishing point and a location of the detected vanishing point; and calculating the gradient based on a difference between the location of the preset vanishing point and the location of the detected vanishing point.
A device comprising: First , second and third elements fabricated on a common substrate further comprising: a coating layer between the first and third elements ; wherein the first element comprises an active waveguide structure supporting a first optical mode , the second element comprises a passive waveguide structure supporting a second optical mode , and the third element , butt-coupled to the first element and coupled to the second element , comprises an intermediate waveguide structure supporting intermediate optical modes ; wherein the first optical mode differs from the second optical mode , a tapered waveguide structure in at least one of the second and third elements performs adiabatic transformation between the second optical mode and one of the intermediate optical modes captured efficiently from the first element ; and wherein mutual alignments of the first, second and third elements are defined using lithographic alignment marks that facilitate precise alignment between layers formed during processing steps. wherein the first element comprises an active waveguide structure supporting a first optical mode , the second element comprises a passive waveguide structure supporting a second optical mode , and the third element , butt-coupled to the first element and coupled to the second element , comprises an intermediate waveguide structure supporting intermediate optical modes ; wherein the first optical mode differs from the second optical mode , a tapered waveguide structure in at least one of the second and third elements performs adiabatic transformation between the second optical mode and one of the intermediate optical modes captured efficiently from the first element ; and wherein mutual alignments of the first, second and third elements are defined using lithographic alignment marks that facilitate precise alignment between layers formed during processing steps.
A nuclear medicine (NM) multi-head imaging system comprising: a gantry defining a bore configured to accept an object to be imaged; a plurality of detector units coupled to the gantry , the detector units being configured to face toward a center of the bore and having respective detector field-of-views (FOVs), each of the detector units configured to rotate about a unit axis , the plurality of detector units including a series of first detector units (510-512) and a second detector unit ; at least one processor configured to execute programmed instructions stored in memory, wherein the at least one processor, when executing the programmed instructions, performs the following operations: rotate the first detector units (510-512) about the unit axis such that the first detector units face in a common first direction that is generally toward the bore , wherein a working gap exists between the detector FOVs of the respective first detector units; rotate the second detector unit about the unit axis such that the second detector unit faces in a second direction that is opposite the first direction, the detector FOV of the second detector unit covering the working gap ; and after rotating the first and second detector units, acquire image data from the first and second detector units for generating a composite persistence image . a gantry defining a bore configured to accept an object to be imaged; a plurality of detector units coupled to the gantry , the detector units being configured to face toward a center of the bore and having respective detector field-of-views (FOVs), each of the detector units configured to rotate about a unit axis , the plurality of detector units including a series of first detector units (510-512) and a second detector unit ; at least one processor configured to execute programmed instructions stored in memory, wherein the at least one processor, when executing the programmed instructions, performs the following operations: rotate the first detector units (510-512) about the unit axis such that the first detector units face in a common first direction that is generally toward the bore , wherein a working gap exists between the detector FOVs of the respective first detector units; rotate the second detector unit about the unit axis such that the second detector unit faces in a second direction that is opposite the first direction, the detector FOV of the second detector unit covering the working gap ; and after rotating the first and second detector units, acquire image data from the first and second detector units for generating a composite persistence image . rotate the first detector units (510-512) about the unit axis such that the first detector units face in a common first direction that is generally toward the bore , wherein a working gap exists between the detector FOVs of the respective first detector units; rotate the second detector unit about the unit axis such that the second detector unit faces in a second direction that is opposite the first direction, the detector FOV of the second detector unit covering the working gap ; and
A method for manufacturing slabs, tiles or sheets of artificial stone with a wide vein effect, which comprises the following steps: a) a template is positioned on a surface , the template comprising gaps and islands , wherein the islands correspond to at least one vein of the article to be manufactured; b) a first mixture is discharged, which comprises inorganic particles and an unhardened binder, onto the template , by means of a first distributor device, such that said first mixture rests on the surface and fills at least a portion of the gaps of the template ; c) the template is removed, obtaining a layer of the first mixture with cavities in said layer, defined by the positions of the islands of the template ; d) a second mixture is discharged, which comprises inorganic particles and an unhardened binder, in order to fill at least a portion of the cavities in the layer of the first mixture with said second mixture ; e) the resulting layer of the combination of first and second mixtures is compacted, and a hardening process is carried out, in order to obtain the slab, tile or sheet of artificial stone with a vein effect; characterised in that in step d) said second mixture is discharged in a localised manner on the cavities in the layer of the first mixture , by means of a second distributor device, which comprises a collector , the bottom opening of which has, in at least one direction, a width (d) less than or equal to the maximum width of the cavities , said second device moving along at least a portion of the cavities , filling at least partially a portion of said cavities with the second mixture . a) a template is positioned on a surface , the template comprising gaps and islands , wherein the islands correspond to at least one vein of the article to be manufactured; b) a first mixture is discharged, which comprises inorganic particles and an unhardened binder, onto the template , by means of a first distributor device, such that said first mixture rests on the surface and fills at least a portion of the gaps of the template ; c) the template is removed, obtaining a layer of the first mixture with cavities in said layer, defined by the positions of the islands of the template ; d) a second mixture is discharged, which comprises inorganic particles and an unhardened binder, in order to fill at least a portion of the cavities in the layer of the first mixture with said second mixture ; e) the resulting layer of the combination of first and second mixtures is compacted, and a hardening process is carried out, in order to obtain the slab, tile or sheet of artificial stone with a vein effect;
An optical sensor , comprising: a semiconductive block comprising a front side (S1) and a back side (S2); a waveguide region disposed on the back side (S2) of the semiconductive block and comprising a core layer for guiding an incident light to a sample holding portion configured for disposing a specimen ; and a light sensing region for sensing an emission light (81-83) emitted by the specimen in response to the incident light and converting the sensed emission light into data information; wherein the light sensing region is in the semiconductive block between the front side (S1) and the back side (S2) thereof and comprises a multi-junction photodiode being proximate to the front side (S1) with multiple junctions in contact with the front side (S1), an interconnection region configured to electrically couple with the multi-junction photodiode for further processing and/or output of said data information, and the interconnection region is disposed below the front side (S1) of the semiconductive block and in proximity to or in contact with the front side (S1). a semiconductive block comprising a front side (S1) and a back side (S2); a waveguide region disposed on the back side (S2) of the semiconductive block and comprising a core layer for guiding an incident light to a sample holding portion configured for disposing a specimen ; and a light sensing region for sensing an emission light (81-83) emitted by the specimen in response to the incident light and converting the sensed emission light into data information; wherein the light sensing region is in the semiconductive block between the front side (S1) and the back side (S2) thereof and comprises a multi-junction photodiode being proximate to the front side (S1) with multiple junctions in contact with the front side (S1), an interconnection region configured to electrically couple with the multi-junction photodiode for further processing and/or output of said data information, and the interconnection region is disposed below the front side (S1) of the semiconductive block and in proximity to or in contact with the front side (S1).
A removable closure device for a space inside an aircraft, comprising: - a frame including at least one fixing interface (15.1, 15.2) for a structural element, - a curtain assembly including a flexible curtain (16.1) , - a roller around which the flexible curtain (16.1) can be wound, wherein said frame includes at least one strut (12.1, 12.2), said strut (12.1, 12.2) including the fixing interface (15.1, 15.2), - at least one guiding device including an electric motor actuator , said guiding device being able to guide in translation the flexible curtain (16.1) relative to the strut (12.1, 12.2), such that the flexible curtain (16.1) can be moved along a direction of movement (D) parallel to a longitudinal direction of the strut (12.1, 12.2) between a stored position in which the flexible curtain (16.1) is mainly wound around the roller and a deployed position in which the flexible curtain (16.1) is mainly unrolled relative to the roller . - a frame including at least one fixing interface (15.1, 15.2) for a structural element, - a curtain assembly including a flexible curtain (16.1) , - a roller around which the flexible curtain (16.1) can be wound, wherein said frame includes at least one strut (12.1, 12.2), said strut (12.1, 12.2) including the fixing interface (15.1, 15.2), - at least one guiding device including an electric motor actuator , said guiding device being able to guide in translation the flexible curtain (16.1) relative to the strut (12.1, 12.2), such that the flexible curtain (16.1) can be moved along a direction of movement (D) parallel to a longitudinal direction of the strut (12.1, 12.2) between a stored position in which the flexible curtain (16.1) is mainly wound around the roller and a deployed position in which the flexible curtain (16.1) is mainly unrolled relative to the roller .
A method for producing a package for an item, comprising - providing a container material made from a leaf material of a plant; - moulding the container material to form a three-dimensional package container having a container opening and a container edge which surrounds the container opening ; - producing a sealing edge on a top surface of the container edge , wherein here the top surface of the container edge is ground by means of grinding; - arranging an item in the three-dimensional package container through the container opening , and - closing the container opening by means of a sealing film , the sealing film here being connected to the sealing edge in an adhesive manner without an adhesive agent, characterized in that the sealing edge is produced by means of the grinding process after the moulding of the container material. - providing a container material made from a leaf material of a plant; - moulding the container material to form a three-dimensional package container having a container opening and a container edge which surrounds the container opening ; - producing a sealing edge on a top surface of the container edge , wherein here the top surface of the container edge is ground by means of grinding; - arranging an item in the three-dimensional package container through the container opening , and - closing the container opening by means of a sealing film , the sealing film here being connected to the sealing edge in an adhesive manner without an adhesive agent,
A device comprising: a laminate structure comprising: a plurality of metal layers (14-1 to 14-6) that are arranged in an alternating configuration with a plurality of dielectric layers (16-1 to 16-5); a fiducial defined by an opening in the laminate structure, wherein the opening extends through first and second metal layers (14-1, 14-2) of the plurality of metal layers, wherein the first metal layer (14-1) is a topmost layer of the laminate structure ; and a solder mask on a surface of the first metal layer, the solder mask forming a solder mask opening that is registered with the fiducial; wherein the device further comprises a metal coating on the laminate structure, wherein the metal coating is distinct from the first and second metal layers, and the metal coating is arranged on at least one horizontal surface of the laminate structure that is outside the opening, on at least one horizontal surface of the laminate structure that covers a bottom of the opening, and on a sidewall of the opening. a plurality of metal layers (14-1 to 14-6) that are arranged in an alternating configuration with a plurality of dielectric layers (16-1 to 16-5); a fiducial defined by an opening in the laminate structure, wherein the opening extends through first and second metal layers (14-1, 14-2) of the plurality of metal layers, wherein the first metal layer (14-1) is a topmost layer of the laminate structure ; and a solder mask on a surface of the first metal layer, the solder mask forming a solder mask opening that is registered with the fiducial; wherein the device further comprises a metal coating on the laminate structure, wherein the metal coating is distinct from the first and second metal layers, and the metal coating is arranged on at least one horizontal surface of the laminate structure that is outside the opening, on at least one horizontal surface of the laminate structure that covers a bottom of the opening, and on a sidewall of the opening.
A linear compressor comprising: a shell ; a cylinder disposed in the shell to define a compression space (P) for a refrigerant; a piston installed to reciprocate in the cylinder ; a nozzle which is provided in the cylinder and through which a portion of the refrigerant introduced into the compression space (P) passes; and a cylinder filter installed in the cylinder and disposed at an inlet-side of the nozzle , characterized in that at least one or more surfaces of the cylinder filter are oil-repellent coated, wherein a gas inflow part passing from an outer circumferential surface to an inner circumferential surface of the cylinder is provided in the cylinder , and a plate in which the nozzle is provided is disposed inside the gas inflow part . a shell ; a cylinder disposed in the shell to define a compression space (P) for a refrigerant; a piston installed to reciprocate in the cylinder ; a nozzle which is provided in the cylinder and through which a portion of the refrigerant introduced into the compression space (P) passes; and a cylinder filter installed in the cylinder and disposed at an inlet-side of the nozzle , characterized in that at least one or more surfaces of the cylinder filter are oil-repellent coated, wherein a gas inflow part passing from an outer circumferential surface to an inner circumferential surface of the cylinder is provided in the cylinder , and a plate in which the nozzle is provided is disposed inside the gas inflow part .