mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a computing system to generate a model of an environment represented by a mesh, the method comprising: segmenting the mesh into a plurality of first mesh blocks; performing a first simplification operation to reduce a complexity of each of a plurality of selected first mesh blocks to generate a plurality of second mesh blocks; characterized by further comprising: performing a region-based operation to detect a shape of each of the second mesh blocks to generate a plurality of third mesh blocks, wherein the region-based operation comprises a planarization operation in which the shape that is detected is a plane; and performing a second simplification operation to simplify each of the third mesh blocks to reach a desired level of complexity to generate fourth mesh blocks. segmenting the mesh into a plurality of first mesh blocks; performing a first simplification operation to reduce a complexity of each of a plurality of selected first mesh blocks to generate a plurality of second mesh blocks; characterized by further comprising: performing a region-based operation to detect a shape of each of the second mesh blocks to generate a plurality of third mesh blocks, wherein the region-based operation comprises a planarization operation in which the shape that is detected is a plane; and performing a second simplification operation to simplify each of the third mesh blocks to reach a desired level of complexity to generate fourth mesh blocks. performing a region-based operation to detect a shape of each of the second mesh blocks to generate a plurality of third mesh blocks, wherein the region-based operation comprises a planarization operation in which the shape that is detected is a plane; and performing a second simplification operation to simplify each of the third mesh blocks to reach a desired level of complexity to generate fourth mesh blocks.
Process for preparation of dimethyl ether from synthesis gas, comprising - a synthesis step, wherein synthesis gas comprising hydrogen and carbon monoxide is converted into dimethyl ether and carbon dioxide, and - a separation step, wherein unconverted synthesis gas is separated from carbon dioxide and dimethyl ether, wherein unconverted synthesis gas is separated from carbon dioxide and dimethyl ether by a membrane, wherein a predominantly hydrogen- and carbon monoxide-containing retentate and a predominantly dimethyl ether- and carbon dioxide-containing permeate are produced, - and wherein the predominantly hydrogen- and carbon monoxide-containing retentate is fed into the synthesis step. - a synthesis step, wherein synthesis gas comprising hydrogen and carbon monoxide is converted into dimethyl ether and carbon dioxide, and - a separation step, wherein unconverted synthesis gas is separated from carbon dioxide and dimethyl ether, wherein unconverted synthesis gas is separated from carbon dioxide and dimethyl ether by a membrane, wherein a predominantly hydrogen- and carbon monoxide-containing retentate and a predominantly dimethyl ether- and carbon dioxide-containing permeate are produced, - and wherein the predominantly hydrogen- and carbon monoxide-containing retentate is fed into the synthesis step.
A chromatographic media for separating bio-polymers, the chromatographic media having cationic exchange properties and anionic exchange properties, the chromatographic media comprising: a. non-porous substrate particles including an organic polymer, the non-porous substrate particles having a neutral hydrophilic layer at a surface of the non-porous substrate particles, in which the neutral hydrophilic layer is configured to reduce a binding of the bio-polymers directly to the non-porous substrate particles compared to a binding of the bio-polymer to the non-porous substrate particles without the neutral hydrophilic layer; b. a charged first ion exchange layer bound to the substrate particles on top of the hydrophilic layer, the first ion exchange layer comprising first ion exchange groups; c. a charged second ion exchange layer bound to the substrate particles on top of the first ion exchange layer, the second ion exchange layer comprising second ion exchange groups, the second ion exchange layer having an opposite charge to the first ion exchange layer and being bound to the substrate particles by electrostatic interactions with the first ion exchange layer, wherein the first ion exchange layer is polymerized onto the substrate particles. a. non-porous substrate particles including an organic polymer, the non-porous substrate particles having a neutral hydrophilic layer at a surface of the non-porous substrate particles, in which the neutral hydrophilic layer is configured to reduce a binding of the bio-polymers directly to the non-porous substrate particles compared to a binding of the bio-polymer to the non-porous substrate particles without the neutral hydrophilic layer; b. a charged first ion exchange layer bound to the substrate particles on top of the hydrophilic layer, the first ion exchange layer comprising first ion exchange groups; c. a charged second ion exchange layer bound to the substrate particles on top of the first ion exchange layer, the second ion exchange layer comprising second ion exchange groups, the second ion exchange layer having an opposite charge to the first ion exchange layer and being bound to the substrate particles by electrostatic interactions with the first ion exchange layer, wherein the first ion exchange layer is polymerized onto the substrate particles.
Supporting framework having at least one suspension device for a diagonal cross brace (42, 44) that reinforces the supporting framework, wherein the suspension device has receiving fingers (20 - 26) for openings provided on the ends of the diagonal cross brace (42, 44), wherein two first receiving fingers (20, 22) of the suspension device each have a rigid bent end portion (20.1), and second receiving fingers (24, 26) situated opposite from the first receiving fingers have a pivotable end portion (24.1), wherein the end portions (24.1) of the second receiving fingers (24, 26) are pivotable between a position that is parallel to a base portion (24.2) of the second receiving fingers (24, 26) and a position that is essentially perpendicular to the base portion (24.2), characterized in that the end portions (24.1) of the second receiving fingers (24, 26) are lockable via a latching mechanism of the second receiving fingers in the two end positions, and the end portions (20.1, 24.1) of the first and second receiving fingers (20 through 26) conically taper toward the outside.
A method for simulating injection molding conditions using input data which includes: - mold shape data in which a mold cavity is defined by minute elements in response to a shape of a molded resin object; - resin path shape data in which a resin path joining an injection apparatus, comprising a cylinder barrel, and an injection molding machine is defined by minute elements; - cavity surface temperature; - physical property data of the filling resin, including viscosity, which is temperature dependent; - injection condition data which includes pressure, temperature, and flow amount of the molten resin filling the inside of the mold; and - a compressibility of the molten resin in the cylinder barrel, the method comprising the steps of: - calculating the flow characteristics in the process of the molten resin filling the inside of the mold, and - calculating the flow characteristics of the molten resin flowing into the mold cavity, while taking into consideration the resin path shape data and the compressibility of the molten resin in the cylinder barrel, characterized in that the method for simulating said injection molding conditions incorporates the delay in the resin flow caused by mechanical play and/or a play allowance of a ball screw, said ball screw being driven by a servomotor and being arranged to drive a screw into a cylinder of said injection molding machine, so as to inject molten resin held in the cylinder into the mold cavity. - mold shape data in which a mold cavity is defined by minute elements in response to a shape of a molded resin object; - resin path shape data in which a resin path joining an injection apparatus, comprising a cylinder barrel, and an injection molding machine is defined by minute elements; - cavity surface temperature; - physical property data of the filling resin, including viscosity, which is temperature dependent; - injection condition data which includes pressure, temperature, and flow amount of the molten resin filling the inside of the mold; and - a compressibility of the molten resin in the cylinder barrel, - calculating the flow characteristics in the process of the molten resin filling the inside of the mold, and - calculating the flow characteristics of the molten resin flowing into the mold cavity, while taking into consideration the resin path shape data and the compressibility of the molten resin in the cylinder barrel,
Image recording unit comprising a surface sensor having sensor pixels arranged raster-shaped in rows and columns and an optical unit arranged in front of the surface sensor, preferably a lens or a lens system, wherein the optical unit images objects located on an object plane within its recording area through an aperture diaphragm onto the surface sensor, - wherein a slit diaphragm is provided in the optical path between the object plane and the surface sensor, wherein the slit of the slit diaphragm runs parallel to a row of the surface sensor, characterised in - that the slit of the slit diaphragm is positioned between the surface sensor and the object plane so that at most half of that amount of light, which emanates from any point in the recording area reaches the pixels on the surface sensor, which would reach the pixels without slit diaphragm. - wherein a slit diaphragm is provided in the optical path between the object plane and the surface sensor, wherein the slit of the slit diaphragm runs parallel to a row of the surface sensor, characterised in - that the slit of the slit diaphragm is positioned between the surface sensor and the object plane so that at most half of that amount of light, which emanates from any point in the recording area reaches the pixels on the surface sensor, which would reach the pixels without slit diaphragm.
A method for anonymous data collection, comprising: assigning, by a first entity, an operator match ID to a client device associated with a particular user; receiving, by a second entity, client demographic information associated with the operator match ID, wherein the client demographic information pertains to the particular user; sending, by the first entity, an encrypted operator match ID that has been encrypted under an encryption key to the client device; sending client device usage information with the encrypted operator match ID by the client device to the second entity through an anonymous channel, wherein the anonymous channel prevents the second entity from identifying the client device; decrypting, by the second entity, the encrypted operator match ID using a decryption key, associated with the encryption key, to obtain the operator match ID; correlating, by the second entity, the client demographic information with the client device usage information based on the operator match ID. assigning, by a first entity, an operator match ID to a client device associated with a particular user; receiving, by a second entity, client demographic information associated with the operator match ID, wherein the client demographic information pertains to the particular user; sending, by the first entity, an encrypted operator match ID that has been encrypted under an encryption key to the client device; sending client device usage information with the encrypted operator match ID by the client device to the second entity through an anonymous channel, wherein the anonymous channel prevents the second entity from identifying the client device; decrypting, by the second entity, the encrypted operator match ID using a decryption key, associated with the encryption key, to obtain the operator match ID; correlating, by the second entity, the client demographic information with the client device usage information based on the operator match ID.
A phase shifter, comprising: a cavity body forming a housing, and a first fixed circuit board and a phase shift unit that are located inside the cavity body, and the phase shift unit being capable of moving relative to the first fixed circuit board, wherein the phase shifter further comprises a power division circuit disposed on the first fixed circuit board, and the power division circuit comprises an input end, a main feeder, a node, at least two output ends (P0, P1, P2), and at least two output circuits; the main feeder is electrically connected between the input end and the node; the at least two output circuits are respectively electrically connected between the node and the at least two output ends (P0, P1, P2); the phase shift unit is disposed in correspondence with the at least two output circuits, and the phase shift unit is configured to change a phase value of a signal path ranging from the node to the at least two output ends (P0, P1, P2), wherein a first cavity and a second cavity are formed inside the housing, the phase shifter further comprises a second fixed circuit board, the first and second fixed circuit boards are respectively fixed in the first cavity and the second cavity, and the first and second fixed circuit boards respectively form suspension microstrip structures inside the first cavity and the second cavity, wherein the housing formed by the cavity body is grounded by a middle part of the cavity body which forms a shared ground and separates the first from the second cavity, and wherein the phase shifter further comprises two filtering stubs (102a, 102b) electrically connected to the main feeder, wherein the two filtering stubs (102a, 102b) are in an open-circuit state and wherein a distance between the two filtering stubs (102a, 102b) ranges between 1/16 and 3/4 of a wavelength, and the wavelength is a wavelength of an electromagnetic wave, wherein the two filtering stubs (102a, 102b) are configured to filter out the electromagnetic wave, wherein the phase shift unit comprises a movable circuit board and a dielectric, the movable circuit board is located between the dielectric and the first fixed circuit board, the movable circuit board is capable of moving relative to the first fixed circuit board, a phase shift circuit (103-1, 103-2) is disposed on the movable circuit board, the phase shift circuit (103-1, 103-2) is electrically coupled to one of the at least two output circuits and is configured to implement a phase shift function, and the dielectric is capable of sliding relative to the first fixed circuit board, to implement a phase shift function.
Rectangular baler having a wall positioning system, the baler comprising a bale chamber which comprises a plurality of walls (110, 120) including a movable wall section, wherein the wall positioning system comprises: - positioning means for moving the movable wall section from a first position to a second position; wherein the positioning means are configured for applying pressure to a first pressure point and to a second pressure point on the movable wall section such that the second position of the movable wall section is substantially parallel to the first position of the movable wall section, and wherein the first pressure point and the second pressure point are spaced apart along a longitudinal direction of the bale chamber; and wherein the positioning means comprise: - actuator means for applying pressure to the first pressure point; - coupling means for providing a coupling between the first pressure point and the second pressure point, which are configured for transferring pressure, which is applied to the first pressure point, to the second pressure point; characterized in that the coupling means comprise a rod which is arranged substantially parallel to the movable wall section, and which is at a first end, hingedly connected to a frame of the baler and to a point on the movable wall section nearby the first pressure point, and at a second end, hingedly connected to the frame of the baler and to the second pressure point. - positioning means for moving the movable wall section from a first position to a second position; wherein the positioning means are configured for applying pressure to a first pressure point and to a second pressure point on the movable wall section such that the second position of the movable wall section is substantially parallel to the first position of the movable wall section, and wherein the first pressure point and the second pressure point are spaced apart along a longitudinal direction of the bale chamber; and wherein the positioning means comprise: - actuator means for applying pressure to the first pressure point; - coupling means for providing a coupling between the first pressure point and the second pressure point, which are configured for transferring pressure, which is applied to the first pressure point, to the second pressure point;
Multiple beam lithography system comprising: a beam source for providing a multitude of beams, a blanker array comprising a blanker for each beam out of the multitude of beams, said array adapted for substantially allowing a plurality of beams to pass through, a control device for providing the blanker array with a temporal blanking pattern indicating for each beam when it should be blanked and when not, thereby modulating each beam with an unique temporal blanking pattern, and a measuring device directly and simultaneously measuring said plurality of individually modulated beams, wherein said measuring device is arranged downstream of the blanker array and comprises a sensor having a sensor area arranged for directly and simultaneously sensing the plurality of individually modulated beams for providing an aggregated signal of the plurality of beams as a function of time. a beam source for providing a multitude of beams, a blanker array comprising a blanker for each beam out of the multitude of beams, said array adapted for substantially allowing a plurality of beams to pass through, a control device for providing the blanker array with a temporal blanking pattern indicating for each beam when it should be blanked and when not, thereby modulating each beam with an unique temporal blanking pattern, and a measuring device directly and simultaneously measuring said plurality of individually modulated beams, wherein said measuring device is arranged downstream of the blanker array and comprises a sensor having a sensor area arranged for directly and simultaneously sensing the plurality of individually modulated beams for providing an aggregated signal of the plurality of beams as a function of time.
Member for building a green tyre blank, characterized in that it comprises: - means of attachment of a base, - external elements mounted with the ability to move relative to one another, and - a flexible strip via which the elements are joined together. - means of attachment of a base, - external elements mounted with the ability to move relative to one another, and - a flexible strip via which the elements are joined together.
Gas valve unit for setting a gas volumetric flow supplied to a gas burner of a gas appliance, in particular a gas cooking appliance, wherein the gas valve unit has at least two on/off valves and two magnetically active bodies, wherein the at least two on/off valves can be actuated by moving the two magnetically active bodies relative to the on/off valves, wherein the magnetically active bodies and the on/off valves are embodied such that as a function of the positions of the magnetically active bodies either no on/off valve or exactly one on/off valve or exactly two on/off valves are opened, wherein the two magnetically active bodies are disposed as a function of an angle of a rotatable component above the on/off valves disposed in series, wherein a first magnetically active body is disposed in the case of a first angle of the rotatable component above the first on/off valve (4.1) of the series of on/off valves (4.1 to 4.5) and wherein a second magnetically active body (6.2) remains disposed above the first on/off valve (4.1) as from a second angle which is larger than the first angle and the first magnetically active body (6. b 1) is guided as a function of an increasingly large angle of the rotatable component above the on/off valves (4.2 to 4.5) following the first on/off valve (4.1), and wherein a plurality N of on/off valves (4.1. to 4.5) is provided, wherein each on/off valve has a moveable shut-off element which when an on/off valve is closed bears against a valve seat and thereby closes an opening into the valve seat, and wherein the openings have different diameters.
An ankle joint bandage comprising: a band-shaped main body part which is woven in a fabric and composed of a winding part which is configured to be, during use, wound around an ankle of a wearer, a first supporting part which is configured to be, during use, disposed from an instep to the ankle of the wearer, and a second supporting part which is configured to be, during use, disposed from the ankle to the instep of the wearer to cross the first supporting part at an upper portion of the instep of the wearer, wherein the first supporting part is provided on the one end side of the main body part, the second supporting part is provided on the other end side of the main body part, and the winding part is provided between the first supporting part and the second supporting part; an anchor part which is woven in a fabric having a loop face of a touch fastener, and is configured to be, during use, fastened around a part corresponding to a metatarsal bone of the wearer; and an engaging part which is joined to the other end of the main body part and has a hook face of a touch fastener, which is configured to be, during use, detachably stuck to the loop face of the anchor part, wherein the band-shaped main body part is woven in a first fabric and the anchor part is woven in a second fabric, wherein the anchor part is joined to the one end of the main body part with an angle (θ) between the circumferential direction of the anchor part, during use, and the longitudinal direction of the main body part, characterized in that the angle (θ) is in a range of 145° to 165°. a band-shaped main body part which is woven in a fabric and composed of a winding part which is configured to be, during use, wound around an ankle of a wearer, a first supporting part which is configured to be, during use, disposed from an instep to the ankle of the wearer, and a second supporting part which is configured to be, during use, disposed from the ankle to the instep of the wearer to cross the first supporting part at an upper portion of the instep of the wearer, wherein the first supporting part is provided on the one end side of the main body part, the second supporting part is provided on the other end side of the main body part, and the winding part is provided between the first supporting part and the second supporting part; an anchor part which is woven in a fabric having a loop face of a touch fastener, and is configured to be, during use, fastened around a part corresponding to a metatarsal bone of the wearer; and an engaging part which is joined to the other end of the main body part and has a hook face of a touch fastener, which is configured to be, during use, detachably stuck to the loop face of the anchor part, wherein the band-shaped main body part is woven in a first fabric and the anchor part is woven in a second fabric, wherein the anchor part is joined to the one end of the main body part with an angle (θ) between the circumferential direction of the anchor part, during use, and the longitudinal direction of the main body part, characterized in that the angle (θ) is in a range of 145° to 165°.