mhurhangee/ep-ind-claims huggingface dataset:
A method for representing an object (150, 160) in a traffic environment using vehicle sensor data, characterized in that the method comprises, for each cycle in a plurality of cycles; obtaining detections (151, 161) related to the object (150, 160), the detections comprising detection coordinates, the object (150, 160) being associated with a heading (Vg1, Vg2) indicating a direction of motion of the object (150, 160), transforming the detections from a sensor coordinate system to a representation coordinate system, the representation coordinate system having an orientation defined based on the heading (Vg1, Vg2), wherein the transforming comprises a coordinate rotation determined based on the heading (Vg1, Vg2) and a coordinate translation determined based on an object location in the sensor coordinate system, aggregating transformed detections with transformed detections from other cycles, and representing the object (150, 160) by the aggregated detections.
A compound of formula wherein X and Y are each independently selected from NH, O and S; Z is selected from NH, O and S; R1 to R5 are each independently selected from H, halogen, OH, C 1-3 -alkyl, C 1-3 -(per)haloalkyl, and C 1-3 -alkoxy, provided that at least two of R1 to R5 is selected independently from OH and C 1-3 -alkoxy; R6 to R10 are each independently selected from H, halogen, OH, C 1-3 -alkyl, C 1-3 -(per)haloalkyl, and C 1-3 -alkoxy, provided that at least two of R6 to R10 is selected independently from OH and C 1-3 -alkoxy, L is a linker selected from a group consisting of C 1-10 -alkylenyl, C 2 - 10 -alkenylenyl and C 2-10 -alkynylenyl, each of which is optionally interrupted one or more times with a group independently selected at each occurrence from the group consisting of -O-, -S-, -NH-, -C(=O)-, -C(=O)-O-, -C(=O)-NH-, -NH-C(=O)-NH-, NH-C(=O)-O-, -S(=O)-, -S(=O)-O-, and PO(=O)O-; and R11 is C 10-25 -alkenyl; or a pharmaceutically acceptable salt thereof. X and Y are each independently selected from NH, O and S; Z is selected from NH, O and S; R1 to R5 are each independently selected from H, halogen, OH, C 1-3 -alkyl, C 1-3 -(per)haloalkyl, and C 1-3 -alkoxy, provided that at least two of R1 to R5 is selected independently from OH and C 1-3 -alkoxy; R6 to R10 are each independently selected from H, halogen, OH, C 1-3 -alkyl, C 1-3 -(per)haloalkyl, and C 1-3 -alkoxy, provided that at least two of R6 to R10 is selected independently from OH and C 1-3 -alkoxy, L is a linker selected from a group consisting of C 1-10 -alkylenyl, C 2 - 10 -alkenylenyl and C 2-10 -alkynylenyl, each of which is optionally interrupted one or more times with a group independently selected at each occurrence from the group consisting of -O-, -S-, -NH-, -C(=O)-, -C(=O)-O-, -C(=O)-NH-, -NH-C(=O)-NH-, NH-C(=O)-O-, -S(=O)-, -S(=O)-O-, and PO(=O)O-; and R11 is C 10-25 -alkenyl; or a pharmaceutically acceptable salt thereof.
A method of operating an energy management gateway for scheduling a plurality of electrical loads, characterized by the following method steps: categorizing each of the plurality of electrical loads as either a constant load or a sporadic load, wherein a constant load is an electrical load which is not turned off completely, at least not over an extended period of time, and a sporadic load is a load which is only turned on during a limited time period; and scheduling (2,3) each of the plurality of loads differently based on whether the load has been categorized as a constant load or a sporadic load; wherein the constant loads are scheduled based on information obtained from an external service provider and/or on information inputted by a user via a user interface of the gateway; and wherein the sporadic loads are scheduled based on information obtained from an external service provider and/or on information inputted by a user via a user interface of the gateway; and distinguishing between preemptive and non-preemptive sporadic loads, wherein preemptive sporadic loads can be scheduled in non consecutive timeslots, and non-preemptive sporadic loads are loads which have to run in consecutive timeslots. categorizing each of the plurality of electrical loads as either a constant load or a sporadic load, wherein a constant load is an electrical load which is not turned off completely, at least not over an extended period of time, and a sporadic load is a load which is only turned on during a limited time period; and scheduling (2,3) each of the plurality of loads differently based on whether the load has been categorized as a constant load or a sporadic load; wherein the constant loads are scheduled based on information obtained from an external service provider and/or on information inputted by a user via a user interface of the gateway; and wherein the sporadic loads are scheduled based on information obtained from an external service provider and/or on information inputted by a user via a user interface of the gateway; and distinguishing between preemptive and non-preemptive sporadic loads, wherein preemptive sporadic loads can be scheduled in non consecutive timeslots, and non-preemptive sporadic loads are loads which have to run in consecutive timeslots.
A tire valve including a grommet fitted on an outside of a valve stem on a proximal end side, which is one end side of the valve stem, the tire valve being configured to be inserted into a valve attachment hole of a tire wheel from a distal end side, which is an other end of the valve stem, the grommet having a proximal end portion configured to engage with the valve attachment hole, the tire valve comprising: a stem step portion provided on an outer surface of the valve stem in a portion where the grommet is fitted, the stem step portion increasing in diameter at the proximal end side, and facing toward the distal end side, a ring provided on the grommet in a portion on the distal end side of the stem step portion of the valve stem, and restricted in axial movement relative to the grommet, and a pressed portion provided on the grommet between the stem step portion and the ring, to be pressed between the stem step portion and the ring when the grommet receives a load applied toward the proximal end side of the valve stem, wherein the ring is arranged outside the grommet, characterized in that the grommet is provided with a grommet step portion on an outer surface thereof such as to face the ring from the distal end side. a stem step portion provided on an outer surface of the valve stem in a portion where the grommet is fitted, the stem step portion increasing in diameter at the proximal end side, and facing toward the distal end side, a ring provided on the grommet in a portion on the distal end side of the stem step portion of the valve stem, and restricted in axial movement relative to the grommet, and a pressed portion provided on the grommet between the stem step portion and the ring, to be pressed between the stem step portion and the ring when the grommet receives a load applied toward the proximal end side of the valve stem, wherein the ring is arranged outside the grommet, characterized in that the grommet is provided with a grommet step portion on an outer surface thereof such as to face the ring from the distal end side.
Holder for a sensor for attachment to a vehicle, in particular motor vehicle, having: a frame with an opening for receiving and attaching the sensor, wherein at least two walls (10, 11), lying opposite one another, of the opening each have at least one clamping section for clamping the sensor tight in the opening, and wherein at least two further walls (12, 13), lying opposite one another, of the opening each have at least one receptacle section (19, 20) for receiving a section of the sensor, wherein at least one of the receptacle sections has a spring section for prestressing the sensor in the direction of the opposite wall, characterized in that the respective clamping section has a latching projection for latching or clipping onto the sensor.
Device for generating and emitting a directional air flow, consisting of a hollow body housing a fan for generating an air flow, which can be flushed out of the housing via an elongate conduit; wherein the hollow body contains a slot or aperture for receiving a sample of a fragrance composition on a suitable support; wherein, in use, the fan generates a directional air flow, which passes over the sample thereby to entrain the fragrance composition and create a fragrance plume that is expressed through the conduit and emitted into a channel that is delimited by panels (ABCD) and (EFGH), which suppress undesirable lateral room convection, wherein the top of the channel (ABEF) must be open to enable an evaluator to assess the fragrance plume at different distances along the channel; and wherein the length of the segments CD and GH is at least 0.5 m.
A diagnostic imaging support system including a medical image shooting device for shooting a medical image of a subject and a medical image processing device for processing the medical image, the system comprising: a projection data acquisition part for acquiring projection data of the subject; a reconstruction part for reconstructing the medical image based on the projection data; an acquisition part for acquiring lesion candidate data which is data of at least one lesion candidate detected from the medical image and includes a size of the at least one lesion candidate; a reconstruction condition decision part for deciding, on the basis of the size of the at least one lesion candidate, a reconstruction condition for a magnified reconstruction image which includes the at least one lesion candidate and is more magnified than the medical image, the reconstruction condition including a field of view, a reconstruction interval and a thickness of the magnified reconstruction image; a magnification reconstruction part for reconstructing the magnified reconstruction image based on the projection data, by using the reconstruction condition; and a display part for displaying the magnified reconstruction image. a projection data acquisition part for acquiring projection data of the subject; a reconstruction part for reconstructing the medical image based on the projection data; an acquisition part for acquiring lesion candidate data which is data of at least one lesion candidate detected from the medical image and includes a size of the at least one lesion candidate; a reconstruction condition decision part for deciding, on the basis of the size of the at least one lesion candidate, a reconstruction condition for a magnified reconstruction image which includes the at least one lesion candidate and is more magnified than the medical image, the reconstruction condition including a field of view, a reconstruction interval and a thickness of the magnified reconstruction image; a magnification reconstruction part for reconstructing the magnified reconstruction image based on the projection data, by using the reconstruction condition; and a display part for displaying the magnified reconstruction image.
A nitrile rubber composition containing a carboxyl group-containing nitrile rubber, a liquid nitrile rubber, and a polyamine-based cross-linking agent.
A fastening device (100, 200, 300, 400) configured for use with an article of footwear comprising: a pivotally movable heel enclosure comprising a heel cup which is configured to surround a heel and secure behind an Achilles tendon of a foot, and a heel base which is coupled to the heel cup and is engageable by a part of a foot so as to cause the heel enclosure to move from an open position to a closed position when engaged by the part of the foot; a guide having a pair of uprights (904, 905); and a pair of connectors (70a, 70b), each of which is coupled to one of the uprights (904, 905) at a first location and to a side of the heel cup at a second location different from the first location and are each configured to guide the heel enclosure between the open position and the closed position, characterized in that each connector comprises an elongated slot (71a, 71b) that is formed along a length of the connector (70a, 70b), the connector (70a, 70b) being slidably attached to the respective upright (904, 905) by means of an attachment point (901a, 901b) which passes through its respective slot (71a, 71b). a pivotally movable heel enclosure comprising a heel cup which is configured to surround a heel and secure behind an Achilles tendon of a foot, and a heel base which is coupled to the heel cup and is engageable by a part of a foot so as to cause the heel enclosure to move from an open position to a closed position when engaged by the part of the foot; a guide having a pair of uprights (904, 905); and a pair of connectors (70a, 70b), each of which is coupled to one of the uprights (904, 905) at a first location and to a side of the heel cup at a second location different from the first location and are each configured to guide the heel enclosure between the open position and the closed position, characterized in that each connector comprises an elongated slot (71a, 71b) that is formed along a length of the connector (70a, 70b), the connector (70a, 70b) being slidably attached to the respective upright (904, 905) by means of an attachment point (901a, 901b) which passes through its respective slot (71a, 71b).
A sealing structure, configured to seal an infrared wall-following module of a smart cleaning device, comprising: a housing, wherein the housing is connected to a side of the infrared wall-following module facing a protective shell of the smart cleaning device; and a lens, wherein the lens is connected to the housing, and covers a side of the housing facing the protective shell; characterized in that the lens comprises an arc-shaped panel and a connecting plate that is arranged on an edge of the arc-shaped panel and that extends toward the infrared wall-following module; and the arc-shaped panel and the connecting plate are arranged to intersect each other. a housing, wherein the housing is connected to a side of the infrared wall-following module facing a protective shell of the smart cleaning device; and a lens, wherein the lens is connected to the housing, and covers a side of the housing facing the protective shell; characterized in that the lens comprises an arc-shaped panel and a connecting plate that is arranged on an edge of the arc-shaped panel and that extends toward the infrared wall-following module; and the arc-shaped panel and the connecting plate are arranged to intersect each other.
A cleat, comprising: a cleat base; a cleat free end; a first side extending between the cleat base and the cleat free end, wherein the first side has a first concave exterior surface over at least 50% of its height dimension between the cleat base and the cleat free end; a second side extending between the cleat base and the cleat free end; a third side extending between the cleat base and the cleat free end; a first junction region joining the first side and the second side; a second junction region joining the first side and the third side; and a third junction region joining the second side and the third side, characterized in that an opening is defined extending through the cleat from the second side to the third side. a cleat base; a cleat free end; a first side extending between the cleat base and the cleat free end, wherein the first side has a first concave exterior surface over at least 50% of its height dimension between the cleat base and the cleat free end; a second side extending between the cleat base and the cleat free end; a third side extending between the cleat base and the cleat free end; a first junction region joining the first side and the second side; a second junction region joining the first side and the third side; and a third junction region joining the second side and the third side, characterized in that an opening is defined extending through the cleat from the second side to the third side.
A packaged optoelectronic module, comprising: a photonic chip having a top surface; characterized in that the packaged optoelectric module further comprises: a first substrate that includes a plurality of vertical interconnect accesses, vias, and a reflective surface, wherein the photonic chip is flip-chip bonded to the first substrate with the top surface facing the first substrate, wherein the vias facilitate electrical connections to the top surface, and wherein the reflective surface forms an angle with the top surface, thereby enabling optical coupling between the top surface and an optical fiber placed in a direction that is substantially parallel to the top surface; further comprising a second substrate situated below the first substrate, wherein the first substrate is bonded to the second substrate via the vias. a photonic chip having a top surface; characterized in that the packaged optoelectric module further comprises: a first substrate that includes a plurality of vertical interconnect accesses, vias, and a reflective surface, wherein the photonic chip is flip-chip bonded to the first substrate with the top surface facing the first substrate, wherein the vias facilitate electrical connections to the top surface, and wherein the reflective surface forms an angle with the top surface, thereby enabling optical coupling between the top surface and an optical fiber placed in a direction that is substantially parallel to the top surface; further comprising a second substrate situated below the first substrate, wherein the first substrate is bonded to the second substrate via the vias. a first substrate that includes a plurality of vertical interconnect accesses, vias, and a reflective surface, wherein the photonic chip is flip-chip bonded to the first substrate with the top surface facing the first substrate, wherein the vias facilitate electrical connections to the top surface, and wherein the reflective surface forms an angle with the top surface, thereby enabling optical coupling between the top surface and an optical fiber placed in a direction that is substantially parallel to the top surface; further comprising a second substrate situated below the first substrate, wherein the first substrate is bonded to the second substrate via the vias.
An electromechanical motor vehicle power steering mechanism for assisting steering of a motor vehicle comprising an electric motor for steering assist and a torque sensor, the electric motor being adapted to apply an assistance torque in response to an output signal from the torque sensor indicative of the input torque applied by a driver of the vehicle to a steering wheel, in which the relationship between the indicated input torque and the assistance torque applied by the motor is defined by a boost curve and a torque controller is present, which is subject to steering algorithms, to actively modify the relationship between the indicated input torque and the assistance torque as defined by the boost curve, characterized in that a logical summer is used to restrict the relationship between the indicated input torque and the assistance torque within given safety limits by restricting the boost curve to an operable range with the logical summer, wherein the safety limits are input to the logical summer and wherein the output of the torque controller and the output of the logical summer form the input of a limiter, which limits the torque controller output based on the safety limits.
A light emitting die package comprising: a leadframe comprising a plurality of leads, a portion of said leadframe defining a mounting pad; at least one light emitting device mounted on the mounting pad; a molded body integrated with portions of the leadframe and comprising an upper portion positioned above a top side of said leadframe, said molded body defining an opening surrounding the mounting pad; a lens coupled to the molded body, at least a portion of said lens occupying more than 50% of the volume of the opening defined in the molded body and extending downward toward said leadframe so that a portion of said lens is even with said light emitting device; wherein said lens terminates above said leadframe to form a gap between the top side of said leadframe and said lens, and an optical cavity remaining in the opening is filled with an encapsulant. a leadframe comprising a plurality of leads, a portion of said leadframe defining a mounting pad; at least one light emitting device mounted on the mounting pad; a molded body integrated with portions of the leadframe and comprising an upper portion positioned above a top side of said leadframe, said molded body defining an opening surrounding the mounting pad; a lens coupled to the molded body, at least a portion of said lens occupying more than 50% of the volume of the opening defined in the molded body and extending downward toward said leadframe so that a portion of said lens is even with said light emitting device; wherein said lens terminates above said leadframe to form a gap between the top side of said leadframe and said lens, and an optical cavity remaining in the opening is filled with an encapsulant.
A method for obtaining glucose-regulated expression of insulin ex vivo in hepatocyte cells of a mammal, wherein the method comprises delivering a first, second or third genetic vector for glucose-regulated synthesis of insulin into an isolated hepatocyte cell, wherein the first vector comprises a promoter enhancer, 1-5 glucose inducible regulatory elements, a liver-specific promoter, a VEGF translational enhancer comprising residues 707-870 of SEQ ID NO: 1, a gene encoding insulin with modified peptidase sites and an albumin 3'UTR and lacks an HGH intron, wherein the second vector comprises an HGH intron, 1-5 glucose inducible regulatory elements, a liver-specific promoter, a VEGF translational enhancer comprising residues 755-918 of SEQ ID NO: 2, a gene encoding insulin with modified peptidase sites and an albumin 3'UTR and lacks a promoter enhancer, wherein the third vector comprises an HGH intron, 1-5 glucose inducible regulatory elements, a liver-specific promoter, a VEGF translational enhancer comprising residues 988-1151 of SEQ ID NO: 3, a gene encoding insulin with modified peptidase sites, an albumin 3'UTR and a promoter enhancer, and wherein glucose-regulated expression of insulin occurs.