mhurhangee/patent-ind-claim-en huggingface dataset:
A system for the 3D measurement of the shape of a material object, comprising: a display device for providing a position and orientation for said object; at least one projection device for projecting a structured light pattern onto a surface of an object; at least one detection device for capturing at least one image of the surface of the object, wherein at least one of the detection devices captures at least one image of the structured light pattern acting on the surface of the object; and a computing device for determining a measurement from the captured image; wherein said display device is arranged to provide a position and orientation for said object to take with respect to said at least one detection device prior to capturing the at least one image. a display device for providing a position and orientation for said object; at least one projection device for projecting a structured light pattern onto a surface of an object; at least one detection device for capturing at least one image of the surface of the object, wherein at least one of the detection devices captures at least one image of the structured light pattern acting on the surface of the object; and a computing device for determining a measurement from the captured image; wherein said display device is arranged to provide a position and orientation for said object to take with respect to said at least one detection device prior to capturing the at least one image.
A flushable intermittent urinary catheter , the catheter comprising: a catheter shaft having a proximal insertion end portion and a distal end portion , a drainage member associated with the distal end portion of the catheter shaft ; and a water capture element associated with the drainage member wherein the water capture element is configured to extend radially outward in a direction from a longitudinal axis of the catheter shaft , such that the water capture element receives a force of flushing water impinging thereon so as to propel the catheter down the toilet.
A system comprising: a system controller for a refrigeration or HVAC system having a compressor rack with a plurality of compressors and a condensing unit with a plurality of condenser fans , the system controller configured to monitor and control operation of the refrigeration or HVAC system; a rack controller in communication with the system controller, the rack controller configured to monitor and control operation of the compressor rack; and a condensing unit controller in communication with the system controller, the condensing unit controller configured to monitor and control operation of the condensing unit; characterized in that the system controller is configured to: determine a startup power demand for each compressor of the plurality of compressors and each condenser fan of the plurality of condenser fans, and determine a startup sequence and timing for the plurality of compressors and the plurality of condenser fans to limit peak power demand during a startup operation to be below a predetermined power threshold. a system controller for a refrigeration or HVAC system having a compressor rack with a plurality of compressors and a condensing unit with a plurality of condenser fans , the system controller configured to monitor and control operation of the refrigeration or HVAC system; a rack controller in communication with the system controller, the rack controller configured to monitor and control operation of the compressor rack; and a condensing unit controller in communication with the system controller, the condensing unit controller configured to monitor and control operation of the condensing unit; characterized in that the system controller is configured to: determine a startup power demand for each compressor of the plurality of compressors and each condenser fan of the plurality of condenser fans, and determine a startup sequence and timing for the plurality of compressors and the plurality of condenser fans to limit peak power demand during a startup operation to be below a predetermined power threshold. determine a startup power demand for each compressor of the plurality of compressors and each condenser fan of the plurality of condenser fans, and determine a startup sequence and timing for the plurality of compressors and the plurality of condenser fans to limit peak power demand during a startup operation to be below a predetermined power threshold.
A body , in particular for a rail vehicle, comprising - a roof with an edge , - a wall element , comprising a wall region and a limb pointing from the wall region in the direction of the roof, wherein the limb of the wall element is arranged above the roof and overlaps with the edge of the roof or a portion of the edge, characterised in that the body comprises a supporting structure , wherein the roof is glued to the supporting structure . - a roof with an edge , - a wall element , comprising a wall region and a limb pointing from the wall region in the direction of the roof,
An insertion device for inserting a medical device into a living body, comprising: a needle portion internally defining an accommodation space for accommodating the medical device and configured to be inserted into a living body together with the medical device to be accommodated in the accommodation space ; and a movable portion relatively movable with respect to the needle portion in the accommodation space in a direction of insertion (A1) of the needle portion , wherein the needle portion comprises a clamping portion configured to change a form in the accommodation space between a first form in which the clamping portion clamps the medical device accommodated in the accommodation space and a second form in which the clamping portion does not clamp the medical device accommodated in the accommodation space , and the movable portion is configured to engage the clamping portion by moving in the direction of insertion (A1) with respect to the needle portion to change the form of the clamping portion from the first form to the second form. a needle portion internally defining an accommodation space for accommodating the medical device and configured to be inserted into a living body together with the medical device to be accommodated in the accommodation space ; and a movable portion relatively movable with respect to the needle portion in the accommodation space in a direction of insertion (A1) of the needle portion , wherein the needle portion comprises a clamping portion configured to change a form in the accommodation space between a first form in which the clamping portion clamps the medical device accommodated in the accommodation space and a second form in which the clamping portion does not clamp the medical device accommodated in the accommodation space , and the movable portion is configured to engage the clamping portion by moving in the direction of insertion (A1) with respect to the needle portion to change the form of the clamping portion from the first form to the second form.
A compound of Formula I, said compound of Formula I being a compound of Formula I(a), I(b), I(c) or I(d): or a pharmaceutically acceptable salt thereof, wherein: R 1 , R 2 , R 3 and R 4 are hydrogen; R 5 is hydrogen, C 1 -C 6 alkyl, C 1 -C 6 haloalkyl, C 2 -C 6 alkenyl, C 0 -C 4 (C 3 -C 6 cycloalkyl) or C 1 -C 6 heteroalkyl; R 6 is hydrogen, C 1 -C 6 alkyl, C 1 -C 6 haloalkyl or C 0 -C 4 (C 3 -C 6 cycloalkyl); and R 7 and R 8 are each independently selected from hydrogen or C 1 -C 6 alkyl. R 1 , R 2 , R 3 and R 4 are hydrogen; R 5 is hydrogen, C 1 -C 6 alkyl, C 1 -C 6 haloalkyl, C 2 -C 6 alkenyl, C 0 -C 4 (C 3 -C 6 cycloalkyl) or C 1 -C 6 heteroalkyl; R 6 is hydrogen, C 1 -C 6 alkyl, C 1 -C 6 haloalkyl or C 0 -C 4 (C 3 -C 6 cycloalkyl); and R 7 and R 8 are each independently selected from hydrogen or C 1 -C 6 alkyl.
A solid hardener composition comprising the reaction product of: (a) a novolac resin component; (b) a liquid or semi-solid epoxy resin; and (c) an epoxidized polyalkylene glycol. (a) a novolac resin component; (b) a liquid or semi-solid epoxy resin; and (c) an epoxidized polyalkylene glycol.
A method for creating a transition joint between two High Voltage DC Mass Impregnated cables (20/40) of the type having a conductor (22/42) comprising a central wire (24/44) surrounded by a plurality of layers (25a-e / 45a-e) of stranded wires (26/46) wound about the central wire, wherein the method comprises the steps of: a) Providing two cables wherein the conductor of the first cable is of smaller diameter than the conductor of the second cable , b) Removing, from terminal portions of the cables, any insulating layers (28/48) or protective layers (30/50, 32/52, 34/54, 36/56, 38/58) surrounding the conductors, c) Unwinding and pulling back in an upstream direction the stranded wires (26/46) thereby exposing the ends of the central wires (24/44) d) Thermally joining a connection piece between the ends of the central wires (24/44), e) Rewinding and thermally joining the stranded wires of the plurality of layers (25a-e) of the first cable to the stranded wires of corresponding layers (45a-e) of the second cable such that each stranded wire of the first cable is joined to a single stranded wire of the second cable , thus forming a flexible transition joint , wherein, in the event a layer of one of the cables comprises more strands than its corresponding layer from the other cable, that two strands of the one cable are joined to a single strand of the other cable a sufficient number of times to account for the difference in total strands, and f) Patching any insulating or protective layers about the transition joint . a) Providing two cables wherein the conductor of the first cable is of smaller diameter than the conductor of the second cable , b) Removing, from terminal portions of the cables, any insulating layers (28/48) or protective layers (30/50, 32/52, 34/54, 36/56, 38/58) surrounding the conductors, c) Unwinding and pulling back in an upstream direction the stranded wires (26/46) thereby exposing the ends of the central wires (24/44) d) Thermally joining a connection piece between the ends of the central wires (24/44), e) Rewinding and thermally joining the stranded wires of the plurality of layers (25a-e) of the first cable to the stranded wires of corresponding layers (45a-e) of the second cable such that each stranded wire of the first cable is joined to a single stranded wire of the second cable , thus forming a flexible transition joint , wherein, in the event a layer of one of the cables comprises more strands than its corresponding layer from the other cable, that two strands of the one cable are joined to a single strand of the other cable a sufficient number of times to account for the difference in total strands, and f) Patching any insulating or protective layers about the transition joint .
Process to produce a monovinylaromatic polymer comprising post-consumer recycled polystyrene (PCR-PS) wherein the process comprises the steps of: a) providing the PCR-PS and monovinylaromatic monomer to at least one dissolver ; b) mixing the PCR-PS and the monovinylaromatic monomer within the dissolver to dissolve the PCR-PS in the monovinylaromatic monomer so as to produce a polymerization mixture , wherein the polymerization mixture comprises insoluble material originated from the dissolved PCR-PS; c) filtering the polymerization mixture in a filtration system in order to obtain a stream of filtered polymerization mixture ; d) ending the filtering of the polymerization mixture and recovering the filtered polymerization mixture ; e) forming a reaction mixture from the filtered polymerization mixture recovered from step d), with the optional addition of a free radical initiator; f) subjecting the reaction mixture to a free-radical polymerization in one or more polymerization reactor in order to produce a monovinylaromatic polymer comprising PCR-PS; further wherein the step c) of filtering the polymerization mixture includes continuously redirecting at least a part of the stream of the filtered polymerization mixture exiting the filtration system back to the dissolver and mixing it with the polymerization mixture so as to continuously reduce the content of insoluble material in the polymerization mixture contained in the dissolver . a) providing the PCR-PS and monovinylaromatic monomer to at least one dissolver ; b) mixing the PCR-PS and the monovinylaromatic monomer within the dissolver to dissolve the PCR-PS in the monovinylaromatic monomer so as to produce a polymerization mixture , wherein the polymerization mixture comprises insoluble material originated from the dissolved PCR-PS; c) filtering the polymerization mixture in a filtration system in order to obtain a stream of filtered polymerization mixture ; d) ending the filtering of the polymerization mixture and recovering the filtered polymerization mixture ; e) forming a reaction mixture from the filtered polymerization mixture recovered from step d), with the optional addition of a free radical initiator; f) subjecting the reaction mixture to a free-radical polymerization in one or more polymerization reactor in order to produce a monovinylaromatic polymer comprising PCR-PS;
A component-on-package circuit (100; 300; 400) comprising: a component (102; 104; 302; 402; 405) for an electrical circuit; and a circuit module attached to the component, the circuit module having: circuitry; and at least one leadframe (103; 203; 303; 403) which connects the circuitry to the component (102; 104; 302; 402; 405) both electrically and thermally, the leadframe (103; 203; 303; 403) having a high degree of both electrical and thermal conductivity and a non-planar shape that provides spring-like cushioning of force applied to the component (102; 104; 302; 402; 405) in the direction of the circuit module, characterized in that the at least one leadframe (103; 203; 303; 403) comprises at least one opening (106; 206; 306; 406). a component (102; 104; 302; 402; 405) for an electrical circuit; and a circuit module attached to the component, the circuit module having: circuitry; and at least one leadframe (103; 203; 303; 403) which connects the circuitry to the component (102; 104; 302; 402; 405) both electrically and thermally, the leadframe (103; 203; 303; 403) having a high degree of both electrical and thermal conductivity and a non-planar shape that provides spring-like cushioning of force applied to the component (102; 104; 302; 402; 405) in the direction of the circuit module, characterized in that the at least one leadframe (103; 203; 303; 403) comprises at least one opening (106; 206; 306; 406).
An apparatus for filtering and degassing plastic melts, in particular of thermoplastic plastic melts, comprising a feeding extruder which comprises at least one extruder screw which is rotatable in a housing, wherein the feeding extruder opens into the feeding region of one or multiple parallel melt filters and a discharge extruder with at least one extruder screw is situated in the discharge region of the melt filter(s), the discharge extruder being operated in the opposite direction of the feeding extruder in such a way that the screw tip acts as the intake zone and the region near the drive acts as the discharge zone, wherein, for discharging the melt, a discharge aperture is provided in the housing before the drive of the discharge extruder , characterized in that the shaft of the extruder screw is sealed against the drive of the discharge extruder by sealing elements and wherein the feeding extruder opens into melt valves and/or melt deflectors which are upstream of the melt filter, and melt valves and/or melt deflectors are provided in the discharge region of the melt filter(s) downstream of the melt filter, subsequent to which the discharge extruder is situated, and that one or multiple degassing zones are provided in the region of the discharge extruder.
A method for wireless communications, comprising: determining a number of resource blocks available for sending a transport block, TB; performing segmentation of the TB into smaller code blocks, CBs, based on the determined number of resource blocks and a code rate for the code blocks, wherein performing the segmentation comprises: selecting a first code block size if the code rate is greater than or equal to a threshold code rate, else selecting a second code block size if the code rate is less than the threshold code rate; and transmitting the CBs, wherein the code blocks are encoded using low density parity check, LDPC, coding. determining a number of resource blocks available for sending a transport block, TB; performing segmentation of the TB into smaller code blocks, CBs, based on the determined number of resource blocks and a code rate for the code blocks, wherein performing the segmentation comprises: selecting a first code block size if the code rate is greater than or equal to a threshold code rate, else selecting a second code block size if the code rate is less than the threshold code rate; and selecting a first code block size if the code rate is greater than or equal to a threshold code rate, else selecting a second code block size if the code rate is less than the threshold code rate; and transmitting the CBs, wherein the code blocks are encoded using low density parity check, LDPC, coding.
A computer program product for facilitating processing in a computing environment, said computer program product comprising: a computer readable storage medium readable by a processing circuit and storing instructions to perform a method comprising: obtaining a clock comparator sign control to be used to determine whether unsigned arithmetic or signed arithmetic is to be used in a comparing operation; and using the clock comparator sign control in a comparison of a value of a clock comparator and at least a portion of a value of a time-of-day clock to determine whether a selected action is to be recognized, wherein based on the clock comparator sign control being set to a first value, unsigned binary arithmetic is used in the comparison , wherein the clock comparator sign control is set to the first value when a discontinuity to be hidden is a transition from a maximum positive signed time-of-day clock value to a maximum negative signed time-of-day clock value, and wherein based on the clock comparator sign control being set to a second value different from the first value, signed binary arithmetic is used in the comparison , wherein the clock comparator sign control is set to the second value when a discontinuity to be hidden is a transition from a maximum unsigned time-of-day clock value to zero. obtaining a clock comparator sign control to be used to determine whether unsigned arithmetic or signed arithmetic is to be used in a comparing operation; and using the clock comparator sign control in a comparison of a value of a clock comparator and at least a portion of a value of a time-of-day clock to determine whether a selected action is to be recognized, wherein based on the clock comparator sign control being set to a first value, unsigned binary arithmetic is used in the comparison , wherein the clock comparator sign control is set to the first value when a discontinuity to be hidden is a transition from a maximum positive signed time-of-day clock value to a maximum negative signed time-of-day clock value, and wherein based on the clock comparator sign control being set to a second value different from the first value, signed binary arithmetic is used in the comparison , wherein the clock comparator sign control is set to the second value when a discontinuity to be hidden is a transition from a maximum unsigned time-of-day clock value to zero.
Pressure roller for agricultural equipment , in particular a distribution machine, for pressing granular material (G), in particular seed and/or fertilizer, onto an agricultural area (L), the roller comprising at least one rotatably mounted, in particular inner, hub shell , at least one casing which at least partially surrounds the hub shell , wherein the casing is coupled to the hub shell at least for approximately conjoint rotation, and at least one substantially dimensionally stable radially circumferential, in particular annular, pressure element , wherein the at least one casing at least partially adjoins the at least one pressure element , and wherein the pressure roller , in particular in the radial direction, has at least one guide element between the hub shell and the pressure element , wherein the guide element and the pressure element , in particular in the radial direction, can be moved relative to one another, wherein the guide element , in particular in the axial direction, is at least partially surrounded by the at least one casing , which is designed to be elastic.
Method for preparing and/or performing separation of a substrate element into at least two substrate sub-elements along a separation surface, comprising the steps of: providing the substrate element comprising at least one substrate body which comprises at least one substrate material; controlling at least one line focus within the substrate body such that substrate material of the substrate body is at least locally removed and/or displaced along the separation surface at least in areas, wherein the line focus represents at least one focus of at least one light beam, wherein the light beam, at least in the area of the line focus, is in the form of a light beam with asymmetrical beam supply, wherein in the asymmetrical beam supply energy is supplied asymmetrically and is configured in such a way that the centroid of the energy distribution in at least one plane perpendicular to the plane, in which the beam propagation takes place, lies in the area of the so far unmodified substrate material. providing the substrate element comprising at least one substrate body which comprises at least one substrate material; controlling at least one line focus within the substrate body such that substrate material of the substrate body is at least locally removed and/or displaced along the separation surface at least in areas, wherein the line focus represents at least one focus of at least one light beam, wherein the light beam, at least in the area of the line focus, is in the form of a light beam with asymmetrical beam supply, wherein in the asymmetrical beam supply energy is supplied asymmetrically and is configured in such a way that the centroid of the energy distribution in at least one plane perpendicular to the plane, in which the beam propagation takes place, lies in the area of the so far unmodified substrate material.
A method for removing volatiles occurred during degradation from environment in a controlled manner, increasing mass loss throughout pyrolysis cycle and accordingly achieving a higher cleaning efficiency in convectional ovens with pyrolytic cycle which comprises hotspot body resistant to pyrolysis temperatures, of which door is locked automatically during pyrolysis process and which can be applied to convectional ovens in which pyrolysis cycle is carried out through a capillary thermostat or electronic card and which has self-cleaning properties, comprising below process steps • increasing temperature of inside of hotspot up to 200-250°C, which is the temperature in which pyrolysis reactions are started, while oven is cool, characterized by that the method further comprises the steps of • increasing oven temperature gradually between 5-20°C starting from 200-250°C and keeping it at this temperature for at least 1 minute, • after gradual temperature increase, increasing temperature of inside of hotspot up to 350-500°C, • keeping the oven at this temperature such that the total pyrolytic cycle is at least 80 minutes. • increasing temperature of inside of hotspot up to 200-250°C, which is the temperature in which pyrolysis reactions are started, while oven is cool, characterized by that the method further comprises the steps of • increasing oven temperature gradually between 5-20°C starting from 200-250°C and keeping it at this temperature for at least 1 minute, • after gradual temperature increase, increasing temperature of inside of hotspot up to 350-500°C, • keeping the oven at this temperature such that the total pyrolytic cycle is at least 80 minutes.