mhurhangee/patent-ind-claim-en huggingface dataset:
A camshaft adjustment tool for aligning a camshaft relative to a camshaft wheel, comprising - a camshaft connection element that can be connected to the camshaft in a rotationally fixed manner, - a base body that is designed to rotatably receive the camshaft connection element about its longitudinal axis, - a fastening device for securing the base body to an engine housing or a cylinder head with respect to the camshaft, which can be connected to the camshaft connection element , in the axial and radial direction of said camshaft, and - a rotational angle detection unit for determining the angle of rotation of the camshaft connection element that can be connected to the camshaft, characterized in that - the camshaft connection element comprises connection contours that are arranged on the end face and that can be brought into engagement with a correspondingly formed end face of the camshaft, or - a connection adapter is provided, which can be arranged in a rotationally fixed manner on the camshaft on the one hand and on the camshaft connection element on the other hand. - a camshaft connection element that can be connected to the camshaft in a rotationally fixed manner, - a base body that is designed to rotatably receive the camshaft connection element about its longitudinal axis, - a fastening device for securing the base body to an engine housing or a cylinder head with respect to the camshaft, which can be connected to the camshaft connection element , in the axial and radial direction of said camshaft, and - a rotational angle detection unit for determining the angle of rotation of the camshaft connection element that can be connected to the camshaft, characterized in that - the camshaft connection element comprises connection contours that are arranged on the end face and that can be brought into engagement with a correspondingly formed end face of the camshaft, or - a connection adapter is provided, which can be arranged in a rotationally fixed manner on the camshaft on the one hand and on the camshaft connection element on the other hand.
A manufacturing method for manufacturing a component , in which a component is coated onto a substrate in an additive production process, wherein a warpage compensator is detachably arranged on the component , so as to block a proper motion of the component caused by thermal warpage, wherein the detachable arrangement of the warpage compensator on the component comprises a form-fit, but not material connection and/or the detachable arrangement of the warpage compensator on the component is configured in such a way that the warpage compensator is arranged spaced apart from the component , and wherein the warpage compensator is arranged on the component in such a way that the proper motion of the component is blocked at least in the direction of an x-axis that runs horizontally to the substrate. in which a component is coated onto a substrate in an additive production process, wherein a warpage compensator is detachably arranged on the component , so as to block a proper motion of the component caused by thermal warpage, wherein the detachable arrangement of the warpage compensator on the component comprises a form-fit, but not material connection and/or the detachable arrangement of the warpage compensator on the component is configured in such a way that the warpage compensator is arranged spaced apart from the component , and wherein the warpage compensator is arranged on the component in such a way that the proper motion of the component is blocked at least in the direction of an x-axis that runs horizontally to the substrate.
A shader processing unit for a graphics processing unit , the shader processing unit configured to execute one or more shaders, the one or more shaders comprising one or more ray tracing shaders that process ray data associated with one or more rays, the ray data for a ray comprising a plurality of ray data elements, the shader processing unit comprising: storage ; and load logic configured to: receive a ray load instruction that comprises: (i) information identifying a load group of a plurality of load groups, each load group of the plurality of load groups comprising one or more ray data elements of the plurality of ray data elements, and (ii) information identifying one or more ray data elements of the identified load group to be retrieved from an external unit ; in response to receiving the ray load instruction , send one or more load requests to the external unit which cause the external unit to retrieve the identified ray data elements of the identified load group for one or more rays; receive the identified ray data elements for the one or more rays from the external unit ; and store the received ray data elements in the storage for processing by a ray tracing shader of the one or more ray tracing shaders. storage ; and load logic configured to: receive a ray load instruction that comprises: (i) information identifying a load group of a plurality of load groups, each load group of the plurality of load groups comprising one or more ray data elements of the plurality of ray data elements, and (ii) information identifying one or more ray data elements of the identified load group to be retrieved from an external unit ; in response to receiving the ray load instruction , send one or more load requests to the external unit which cause the external unit to retrieve the identified ray data elements of the identified load group for one or more rays; receive the identified ray data elements for the one or more rays from the external unit ; and store the received ray data elements in the storage for processing by a ray tracing shader of the one or more ray tracing shaders. receive a ray load instruction that comprises: (i) information identifying a load group of a plurality of load groups, each load group of the plurality of load groups comprising one or more ray data elements of the plurality of ray data elements, and (ii) information identifying one or more ray data elements of the identified load group to be retrieved from an external unit ; in response to receiving the ray load instruction , send one or more load requests to the external unit which cause the external unit to retrieve the identified ray data elements of the identified load group for one or more rays; receive the identified ray data elements for the one or more rays from the external unit ; and store the received ray data elements in the storage for processing by a ray tracing shader of the one or more ray tracing shaders.
A filter comprising a base material and a catalytic substance comprising Pt and Pd in a ratio of between 1:1 and 10:1 as the catalytic substance provided within the base material, wherein the base material comprises a plurality of cells forming gas flow paths and having a gas inflow-side end portion and outflow-side end portion, and a plurality of porous partition walls defining said cells, the end portions of at least some of the cells being closed off, and the partition wall void occupied by the catalytic substance within the pores of the partition walls is 10% or less, wherein the catalytic substance is included in a range of between 10% and 50% of the total length of the partition walls in the lengthwise direction, from the gas inflow-side end portion. wherein the base material comprises a plurality of cells forming gas flow paths and having a gas inflow-side end portion and outflow-side end portion, and a plurality of porous partition walls defining said cells, the end portions of at least some of the cells being closed off, and the partition wall void occupied by the catalytic substance within the pores of the partition walls is 10% or less, wherein the catalytic substance is included in a range of between 10% and 50% of the total length of the partition walls in the lengthwise direction, from the gas inflow-side end portion.
A metrology system for powering a metrology device , said system comprising: - a metrology device , - a pipe section forming a flowpath for a material , - a rotary mechanical device at least partially disposed in the flow path, - a generator operative to generate a first electrical signal in response to rotation of the rotary mechanical device , delivering said first electrical signal to a circuit , - a load , disposed in said circuit , said load being a power source or supply for powering electronics or charging a battery on said metrology device , - a load control device disposed in said circuit and configured to apply an electrical load on the generator to modulate operation of the generator so that a pressure of the flow is set downstream of the rotary mechanical device , - sensors disposed on either side of the rotary mechanical device for measuring values allowing to complete pressure drop calculations, wherein the load control device includes a microcontroller operative to compare values from the sensors to set a variable load on the generator , wherein the metrology device is configured to measure parameters of the flow of said material , and wherein the generator , load and load control device are arranged in parallel in the circuit . - a metrology device , - a pipe section forming a flowpath for a material , - a rotary mechanical device at least partially disposed in the flow path, - a generator operative to generate a first electrical signal in response to rotation of the rotary mechanical device , delivering said first electrical signal to a circuit , - a load , disposed in said circuit , said load being a power source or supply for powering electronics or charging a battery on said metrology device , - a load control device disposed in said circuit and configured to apply an electrical load on the generator to modulate operation of the generator so that a pressure of the flow is set downstream of the rotary mechanical device , - sensors disposed on either side of the rotary mechanical device for measuring values allowing to complete pressure drop calculations, wherein the load control device includes a microcontroller operative to compare values from the sensors to set a variable load on the generator , wherein the metrology device is configured to measure parameters of the flow of said material , and wherein the generator , load and load control device are arranged in parallel in the circuit .
A packaging box comprising a box body with a top opening and an openable cover connected at a top of the box body ; wherein the box body comprises a bottom wall and a side wall connected to a peripheral edge of the bottom wall , wherein a top of the side wall forms an arc top edge folding outward; wherein the openable cover further comprises a top wall and a fastening part connected to a peripheral edge of the top wall ; wherein the arc top edge comprises a first inner side connected with the side wall and extending upward, a first outer side , and a first arc part connected with the first inner side at one end and connected with the first outer side with the other end; wherein the first arc part protrudes upward and the first outer side extends downward from the first arc part ; wherein the fastening part comprises a second inner side extending upward from the peripheral edge of the top wall , a second outer side , and a second arc part connected with the second inner side at one end and connected with the second outer side with the other end; the second arc part protrudes upward and the second outer side extends downward from the second arc part ; a recessed transition part is formed between the top wall and the fastening part ; characterised in that the recessed transition part surrounds the top wall and has a downward concave arc structure, and its lowest point is lower than the top wall ; a plurality of convex ribs are arranged on the second outer side of the fastening part and protruding towards the second inner side ; wherein a distance between the upper edge of the plurality of convex ribs and the second arc part of the fastening part is equal to or slightly greater than a corresponding distance between a lower edge of the first outer side and a top surface of the first arc part of the arc top edge ; when the cover is fastened onto the box body , the first outer side of the arc top edge would squeeze the convex ribs on the fastening part , which would slightly deform the second outer side of the fastening part outward; when the fastening is in place, the convex ribs block at the lower edge of the first outer side of the box ; a ring-shaped protrusion protruding towards the second outer side is formed at a lower end of the second inner side ; wherein the ring-shaped protrusion surrounds the second inner side and contacts with the arc top edge of the box body .
A crystalline form of Compound 1: characterized by an X-ray powder diffractogram comprising the following peaks: 9.3, 15.0, and 19.8 °2θ ± 0.2 °2θ (Compound 1 Form I); wherein the peaks are as determined on a diffractometer using Cu-Kα radiation at a wavelength of 1.54 Å. characterized by an X-ray powder diffractogram comprising the following peaks: 9.3, 15.0, and 19.8 °2θ ± 0.2 °2θ (Compound 1 Form I); wherein the peaks are as determined on a diffractometer using Cu-Kα radiation at a wavelength of 1.54 Å.
Second stage device for reducing the pressure of a breathable gas mixture for a dispenser of a self-breathing system for underwater use, comprising an inlet chamber of the gas mixture and a breathing chamber , which chambers are connected to each other by means of a valve , which valve is provided with a valve seat and a movable shutter and elastic stressing means of the shutter towards the closing condition of the valve , the breathing chamber being delimited in part by a flexible membrane connected to the shutter by an actuating lever so that a displacement of the flexible membrane towards the interior of the breathing chamber causes a displacement of the shutter in the opening direction of the valve , a balancing chamber being provided and the shutter being hollow and provided with an insertion shaft in a mouth of the chamber in the position opposite the valve , which device comprises a barrier element adapted to separate the mouth of the balancing chamber from the breathing chamber , wherein the barrier element has a separation wall of the balancing chamber from the breathing chamber , which wall is provided with a through hole for the sliding housing of the shaft , characterized in that the barrier element comprises a gasket ring adapted to make a hydraulic seal on the mantle surface of the shaft , which gasket ring is interposed between the separation wall and the mouth of the balancing chamber , and in that the mouth of the balancing chamber is shaped so as to form a bushing end , the barrier element being cup-shaped comprising a side wall and a bottom wall , which bottom wall is formed by the separation wall, and the barrier element being coupled to the bushing end . which device comprises a barrier element adapted to separate the mouth of the balancing chamber from the breathing chamber , wherein the barrier element has a separation wall of the balancing chamber from the breathing chamber , which wall is provided with a through hole for the sliding housing of the shaft , characterized in that the barrier element comprises a gasket ring adapted to make a hydraulic seal on the mantle surface of the shaft , which gasket ring is interposed between the separation wall and the mouth of the balancing chamber , and in that the mouth of the balancing chamber is shaped so as to form a bushing end , the barrier element being cup-shaped comprising a side wall and a bottom wall , which bottom wall is formed by the separation wall, and the barrier element being coupled to the bushing end .
A method of making a semi-finished or finished optical lens comprising: determining the position of at least a portion of a front surface or a back surface of a lens blank and/or the position of at least a portion of at least one of one or more light filtering layers within a lens surfacing system , wherein the one or more light filtering layers are located between a front surface and a back surface of a lens blank, shaping at least a portion of the front surface or the back surface of the lens blank according to shaping instructions, where the instructions comprise shaping map data indicative of a front surface or back surface of the optical lens such that the front surface or the back surface of the optical lens will not intersect with the one or more light filtering layers , and positioning the lens blank so that at least a portion of the one or more light filtering layers is disposed at a zeroed position on a coordinate axis, where the coordinate axis is an axis that extends between the front surface and the back surface of the lens blank. determining the position of at least a portion of a front surface or a back surface of a lens blank and/or the position of at least a portion of at least one of one or more light filtering layers within a lens surfacing system , wherein the one or more light filtering layers are located between a front surface and a back surface of a lens blank, shaping at least a portion of the front surface or the back surface of the lens blank according to shaping instructions, where the instructions comprise shaping map data indicative of a front surface or back surface of the optical lens such that the front surface or the back surface of the optical lens will not intersect with the one or more light filtering layers , and positioning the lens blank so that at least a portion of the one or more light filtering layers is disposed at a zeroed position on a coordinate axis, where the coordinate axis is an axis that extends between the front surface and the back surface of the lens blank.
An autonomous cleaner (100; 100a), as a first cleaner (100; 100a) of a plurality of autonomous cleaners (100; 100a, 100b), comprising: a traveling unit to move a main body ; a communication unit to perform communication with a second cleaner ; and a control unit to determine a position of the second cleaner using an Ultra-WideBand (UWB) signal output from the communication unit , and set area information , in which the first and second cleaners (100; 100a, 100b) are to perform cleaning, based on a position of the first cleaner (100; 100a) and the position of the second cleaner , wherein the control unit controls the second cleaner based on second area information in which the second cleaner is to perform cleaning, characterized in that the control unit is configured to receive information on whether or not cleaning can be continued, from the second cleaner through the communication unit , when the second cleaner has completed the cleaning of the area corresponding to the second area information along the sensed traveling path of the second cleaner ; change the area information when the information that cleaning can be continued is received from the second cleaner ; and continue the cleaning of the second cleaner based on the changed area information . a traveling unit to move a main body ; a communication unit to perform communication with a second cleaner ; and a control unit to determine a position of the second cleaner using an Ultra-WideBand (UWB) signal output from the communication unit , and set area information , in which the first and second cleaners (100; 100a, 100b) are to perform cleaning, based on a position of the first cleaner (100; 100a) and the position of the second cleaner , wherein the control unit controls the second cleaner based on second area information in which the second cleaner is to perform cleaning, characterized in that the control unit is configured to receive information on whether or not cleaning can be continued, from the second cleaner through the communication unit , when the second cleaner has completed the cleaning of the area corresponding to the second area information along the sensed traveling path of the second cleaner ; change the area information when the information that cleaning can be continued is received from the second cleaner ; and continue the cleaning of the second cleaner based on the changed area information . receive information on whether or not cleaning can be continued, from the second cleaner through the communication unit , when the second cleaner has completed the cleaning of the area corresponding to the second area information along the sensed traveling path of the second cleaner ; change the area information when the information that cleaning can be continued is received from the second cleaner ; and continue the cleaning of the second cleaner based on the changed area information .
A transition metal compound represented by General Formula [I] or an enantiomer thereof: [in Formula [I], R 1 , R 3 , R 5 , R 6 , R 7 , R 8 , R 9 , R 10 , R 11 , R 12 , R 13 , R 14 , R 15 and R 16 are each independently a hydrogen atom, a hydrocarbon group, a hetero atom-containing hydrocarbon group, or a silicon-containing group; R 2 is a hydrocarbon group, a hetero atom-containing hydrocarbon group, or a silicon-containing group; R 4 is a hydrogen atom; any two substituents of the substituents R 1 to R 16 except R 4 may be bonded to each other to form a ring; M is a transition metal of Group IV; Q is a halogen atom, a hydrocarbon group, an anionic ligand, or a neutral ligand coordinatable with a lone electron pair; j is an integer of 1 to 4; and when j is an integer of 2 or greater, Qs may be the same or different from one another].
An advanced driver assistance system for a vehicle , the vehicle comprising at least one tire and at least one adaptable aerodynamics adaption unit for adapting a downforce acting on the vehicle during a motion of the vehicle , characterized in that the advanced driver assistance system comprises: - a first determining unit for determining a parameter indicative of a footprint of the at least one tire , - a control unit for controlling the at least one adaptable aerodynamics adaption unit based on the determined parameter. - a first determining unit for determining a parameter indicative of a footprint of the at least one tire , - a control unit for controlling the at least one adaptable aerodynamics adaption unit based on the determined parameter.