mhurhangee/ep-ind-claims huggingface dataset:
A pre-ignition fuel treatment system for an engine that combusts a fuel to produce power and an exhaust gas, the system comprising: a first structure comprising a first housing (135, 235) with a first wall surface having coherent surface features that entrains the fuel stream from a fuel inlet to travel in a first flow pattern through the first housing (135, 235) to the engine; and a second structure comprising a second housing with a second wall surface having coherent surface features that entrains the exhaust gas stream from the engine to travel in a second flow pattern through the second housing, wherein at least a portion of the first housing (135, 235) is enclosed within the second housing and wherein the fuel stream is separated from the exhaust stream by a wall of the first housing; wherein the first and second flow patterns are configured to allow a coherent-structured turbulence flow on both sides of the wall of the first housing, and wherein both the coherent surface features on the first wall surface of the first housing (135, 235) and the coherent surface features on the second wall surface of the second housing comprise a pattern of features selected from the group consisting of scales, bumps, dimples, cavities, ridges, grooves, and wedges. a first structure comprising a first housing (135, 235) with a first wall surface having coherent surface features that entrains the fuel stream from a fuel inlet to travel in a first flow pattern through the first housing (135, 235) to the engine; and a second structure comprising a second housing with a second wall surface having coherent surface features that entrains the exhaust gas stream from the engine to travel in a second flow pattern through the second housing, wherein at least a portion of the first housing (135, 235) is enclosed within the second housing and wherein the fuel stream is separated from the exhaust stream by a wall of the first housing; wherein the first and second flow patterns are configured to allow a coherent-structured turbulence flow on both sides of the wall of the first housing, and wherein both the coherent surface features on the first wall surface of the first housing (135, 235) and the coherent surface features on the second wall surface of the second housing comprise a pattern of features selected from the group consisting of scales, bumps, dimples, cavities, ridges, grooves, and wedges.
A yarn winding device comprising: a yarn supplying section that supports a yarn supplying bobbin with a yarn wound thereon; a yarn accumulating device that winds and accumulates the yarn from the yarn supplying bobbin supported by the yarn supplying section; a package forming section that pulls the yarn from the yarn accumulating device and winds the pulled yarn to form a package; a tension applying section that applies tension on the yarn being wound by the yarn accumulating device; a supplied yarn catching section that catches a yarn end that is conveyed from the yarn supplying section; a yarn joining device that joins the yarn from the yarn supplying bobbin caught by the supplied yarn catching section and the yarn that is wound in the yarn accumulating device, a yarn end blowing off section that conveys the yarn end from the yarn supplying bobbin supported in the yarn supplying section toward the yarn accumulating device and that is arranged between the yarn supplying section and the yarn joining device, characterized in that downstream of the yarn supplying section on a yarn path, the yarn joining device, the supplied yarn catching section, the tension applying section, and the yarn accumulating device are sequentially arranged from upstream. a yarn supplying section that supports a yarn supplying bobbin with a yarn wound thereon; a yarn accumulating device that winds and accumulates the yarn from the yarn supplying bobbin supported by the yarn supplying section; a package forming section that pulls the yarn from the yarn accumulating device and winds the pulled yarn to form a package; a tension applying section that applies tension on the yarn being wound by the yarn accumulating device; a supplied yarn catching section that catches a yarn end that is conveyed from the yarn supplying section; a yarn joining device that joins the yarn from the yarn supplying bobbin caught by the supplied yarn catching section and the yarn that is wound in the yarn accumulating device, a yarn end blowing off section that conveys the yarn end from the yarn supplying bobbin supported in the yarn supplying section toward the yarn accumulating device and that is arranged between the yarn supplying section and the yarn joining device, characterized in that downstream of the yarn supplying section on a yarn path, the yarn joining device, the supplied yarn catching section, the tension applying section, and the yarn accumulating device are sequentially arranged from upstream.
A computer-implemented method for presenting media content within a vehicle cabin, comprising: determining, by a goal engine, an initial state associated with the vehicle cabin based on sensor data from at least one sensor; determining, by the goal engine, a goal state; selecting media content based on the initial state and the goal state; and causing visual content associated with the media content to be displayed on at least one display surface (602-1, 602-2) positioned on a ceiling of the vehicle cabin. determining, by a goal engine, an initial state associated with the vehicle cabin based on sensor data from at least one sensor; determining, by the goal engine, a goal state; selecting media content based on the initial state and the goal state; and causing visual content associated with the media content to be displayed on at least one display surface (602-1, 602-2) positioned on a ceiling of the vehicle cabin.
A laser scanner having at least one transmission element and having at least one reception element and having a control and evaluation unit for evaluating the time of flight of light beams from the transmission element via an object to the reception element, wherein a plurality of transmission elements and a plurality of reception elements are arranged in the form of a segment of a circle in a common housing, characterized in that the light beams are transmitted and/or received in different angular directions in fan form by a convex surface at an outer side of the housing, with the spacings of the transmitted light beams of the transmission elements increasing as the distance from the laser scanner becomes larger and/or with the spacings of the received light beams of the reception elements decreasing as the distance from the laser scanner becomes smaller, with the optical axes of the transmission elements or reception elements having a common origin, i.e. a common punctiform origin, in the housing of the laser scanner and with the transmission elements and/or the reception elements being arranged equidistantly in the form of a segment of a circle.
Vehicle tyre having an outer surface, wherein the outer surface has an optoelectronically readable code, which is formed by a relief comprising a matrix arrangement of a multiplicity of first surface regions having a depth profile and a multiplicity of second surface regions having a depth profile, wherein the first surface regions differ from the second surface regions in their depth profile in such a way that they are configured as optoelectronically distinguishable, and wherein the relief has a relief depth of a maximum of 0.5 mm, and wherein the outer surface having the optoelectronically readable code is a surface of a tread of the vehicle tyre, characterized in that the first surface regions correspond in their depth profile to the depth profile of the surface of the tread that is different from the relief and in that the second surface regions respectively have multiple elements, wherein in each case an element is an elevation or a depression. the first surface regions correspond in their depth profile to the depth profile of the surface of the tread that is different from the relief and in that the second surface regions respectively have multiple elements, wherein in each case an element is an elevation or a depression.
A device for signature adaptation, comprising at least one surface element (100; 300; 500) arranged to assume a determined thermal distribution, wherein said surface element comprises at least one temperature generating element (150; 450a, 450b, 450c) arranged to generate at least one predetermined temperature gradient to a portion of a first heat conducting layer (80,110) of said at least one surface element, wherein said at least one surface element (100; 300; 500) comprises at least one radar suppressing element, wherein said at least one radar suppressing element is arranged to suppress reflections of incident radio waves, the device being characterized in that said radar suppressing element is arranged interiorly relative to said first heat conducting layer (80, 110) and wherein said first heat conducting layer (80, 110) is arranged with frequency selective surface structure so that incident radio waves are filtered and passed through said first heat conducting layer (80, 110) whereby incident radio waves are absorbed by said interiorly arranged radar suppressing element.
A system for adjusting temperature of cooling-liquid for a fuel cell, comprising: a fuel cell; a radiator configured to radiate heat of the cooling-liquid; a cooling-liquid circulation flow-channel configured to connect the fuel cell and the radiator in a manner that the cooling-liquid flows in circulation; a radiator bypass flow-channel configured to connect an upstream and a downstream of the radiator in a manner that the cooling-liquid bypasses the radiator; and a thermostat valve (50,500) which is disposed in the radiator bypass flow-channel and is configured to adjust a flow-rate for flowing through the radiator bypass flow-channel; characterized by: a valve bypass flow-channel through which the cooling-liquid of the radiator bypass flow-channel flows at a predetermined amount even if the thermostat valve (50,500) is in a fully opened state in which all of the cooling-liquid that flows through the cooling-liquid circulation flow-channel flows through the radiator and does not flow in the radiator bypass flow-channel. a fuel cell; a radiator configured to radiate heat of the cooling-liquid; a cooling-liquid circulation flow-channel configured to connect the fuel cell and the radiator in a manner that the cooling-liquid flows in circulation; a radiator bypass flow-channel configured to connect an upstream and a downstream of the radiator in a manner that the cooling-liquid bypasses the radiator; and a thermostat valve (50,500) which is disposed in the radiator bypass flow-channel and is configured to adjust a flow-rate for flowing through the radiator bypass flow-channel; characterized by: a valve bypass flow-channel through which the cooling-liquid of the radiator bypass flow-channel flows at a predetermined amount even if the thermostat valve (50,500) is in a fully opened state in which all of the cooling-liquid that flows through the cooling-liquid circulation flow-channel flows through the radiator and does not flow in the radiator bypass flow-channel.
Thermoplastic composition having high fluidity in the molten state, comprising at least: (a) from 80% to 99.8% by weight of thermoplastic polymer matrix, in particular of polyamide(s); (b) from 0.1% to 10% by weight of cyclic polyester oligomer(s), in particular of cyclized poly(butylene terephthalate), the said oligomer having a degree of polymerization of from 2 to 25; and (c) from 0.1% to 12% by weight of phenolic polymer(s), and in particular of novolac resin(s); the said compounds (b) and (c) being present in a (c)/(b) ratio by weight varying from 0.25 to 6, preferably from approximately 0.75 to 2.75. (a) from 80% to 99.8% by weight of thermoplastic polymer matrix, in particular of polyamide(s); (b) from 0.1% to 10% by weight of cyclic polyester oligomer(s), in particular of cyclized poly(butylene terephthalate), the said oligomer having a degree of polymerization of from 2 to 25; and (c) from 0.1% to 12% by weight of phenolic polymer(s), and in particular of novolac resin(s);
An image decoding method, comprising: determining an inter-component prediction mode of a chroma component block based on an inter-component prediction mode list and predetermined index information, wherein the inter-component prediction mode list is configured with k inter-component prediction modes; downsampling reference samples for inter-component prediction of the chroma component block based on the determined inter-component prediction mode; deriving a parameter of a current linear prediction model based on the downsampled reference samples; and performing the inter-component prediction for the chroma component block by using the parameter of the current linear prediction model, characterized in that: deriving the parameter of the current linear prediction model comprises: classifying the downsampled reference samples into a first group and a second group by comparing the values of the downsampled reference samples; calculating a first average value of downsampled reference samples belonging to the first group and a second average value of downsampled reference samples belonging to the second group; and deriving the parameter of the current linear prediction model by using both the first average value and the second average value. determining an inter-component prediction mode of a chroma component block based on an inter-component prediction mode list and predetermined index information, wherein the inter-component prediction mode list is configured with k inter-component prediction modes; downsampling reference samples for inter-component prediction of the chroma component block based on the determined inter-component prediction mode; deriving a parameter of a current linear prediction model based on the downsampled reference samples; and performing the inter-component prediction for the chroma component block by using the parameter of the current linear prediction model, characterized in that: deriving the parameter of the current linear prediction model comprises: classifying the downsampled reference samples into a first group and a second group by comparing the values of the downsampled reference samples; calculating a first average value of downsampled reference samples belonging to the first group and a second average value of downsampled reference samples belonging to the second group; and deriving the parameter of the current linear prediction model by using both the first average value and the second average value. classifying the downsampled reference samples into a first group and a second group by comparing the values of the downsampled reference samples; calculating a first average value of downsampled reference samples belonging to the first group and a second average value of downsampled reference samples belonging to the second group; and deriving the parameter of the current linear prediction model by using both the first average value and the second average value.
A catheter pump system comprising: an impeller; a catheter body having a lumen therethrough; a drive shaft disposed inside the catheter body and coupled with the impeller at a distal portion of the drive shaft, the drive shaft being configured such that the rotation of the drive shaft causes the impeller to rotate; and a single magnet motor assembly permanently coupled to the drive shaft, the single magnet motor assembly comprising: a motor housing; a chamber disposed in the motor housing, at least a portion of the chamber in fluid communication with the lumen of the catheter body; and a damper (41A, 41B) configured to reduce the transmission of vibrations from the single magnet motor assembly. an impeller; a catheter body having a lumen therethrough; a drive shaft disposed inside the catheter body and coupled with the impeller at a distal portion of the drive shaft, the drive shaft being configured such that the rotation of the drive shaft causes the impeller to rotate; and a single magnet motor assembly permanently coupled to the drive shaft, the single magnet motor assembly comprising: a motor housing; a chamber disposed in the motor housing, at least a portion of the chamber in fluid communication with the lumen of the catheter body; and a damper (41A, 41B) configured to reduce the transmission of vibrations from the single magnet motor assembly. a motor housing; a chamber disposed in the motor housing, at least a portion of the chamber in fluid communication with the lumen of the catheter body; and a damper (41A, 41B) configured to reduce the transmission of vibrations from the single magnet motor assembly.
A rectangular baler comprising: a bale chamber having an inlet and a discharge outlet and being delimited by a plurality of walls (4,5), said bale chamber being adapted to contain one or more bales; a compacting plunger for advancing crop material in a forward direction towards the discharge outlet, said plunger being moveable between a retracted position and an extended position; an ejection arrangement provided in a wall of said plurality of walls (4,5), said ejection arrangement comprising a shuttle assembly with at least one dog (212, 213); said shuttle assembly being mounted for reciprocating in the forward direction and back; said at least one dog (212, 213) being mounted for protruding from said wall when the shuttle assembly is moving from a rest position in the forward direction to move said one or more bales towards the discharge outlet; characterised in that said at least one dog comprises at least one end dog located in the rest position of the shuttle assembly in a zone near the plunger in the extended position thereof, such that when the shuttle assembly moves in the forward direction, said at least one end dog is engageable behind a bale of said one or more bales, which is adjacent the inlet of the bale chamber. a bale chamber having an inlet and a discharge outlet and being delimited by a plurality of walls (4,5), said bale chamber being adapted to contain one or more bales; a compacting plunger for advancing crop material in a forward direction towards the discharge outlet, said plunger being moveable between a retracted position and an extended position; an ejection arrangement provided in a wall of said plurality of walls (4,5), said ejection arrangement comprising a shuttle assembly with at least one dog (212, 213); said shuttle assembly being mounted for reciprocating in the forward direction and back; said at least one dog (212, 213) being mounted for protruding from said wall when the shuttle assembly is moving from a rest position in the forward direction to move said one or more bales towards the discharge outlet; characterised in that said at least one dog comprises at least one end dog located in the rest position of the shuttle assembly in a zone near the plunger in the extended position thereof, such that when the shuttle assembly moves in the forward direction, said at least one end dog is engageable behind a bale of said one or more bales, which is adjacent the inlet of the bale chamber.
A method, performed by a management node (130; 131), for supporting management of network nodes (120-123; 124-127) comprised in a communication network, wherein the method comprises: - receiving (501a-b; 601), from at least some of said network nodes (120, 121), Link Layer Discovery Protocol, "LLDP", information, which LLDP information is information obtained by said nodes based on one or more LLDP messages received from neighboring network nodes that are neighbouring said at least some network nodes (120, 121), the LLDP information comprising security status information regarding said neigbouring network nodes, wherein the security status information regarding a neighbouring network node indicates if the neighbouring network node has been verified to be authentic and indicates if the neighbouring network node has been verified to be not authentic. - receiving (501a-b; 601), from at least some of said network nodes (120, 121), Link Layer Discovery Protocol, "LLDP", information, which LLDP information is information obtained by said nodes based on one or more LLDP messages received from neighboring network nodes that are neighbouring said at least some network nodes (120, 121), the LLDP information comprising security status information regarding said neigbouring network nodes, wherein the security status information regarding a neighbouring network node indicates if the neighbouring network node has been verified to be authentic and indicates if the neighbouring network node has been verified to be not authentic.
A needle safety assembly comprising a needle and a protective cover for the needle, wherein the needle is attached to a needle hub which has wings provided on opposite sides of the needle hub and which can be moved relative to the protective cover from a position of use in which at least the tip of the needle is outside of the protective cover into a retracted position in which the needle is fully received in the protective cover, wherein the protective cover is of generally tubular shape and defines two opposite axial slots which extend from a distal end of the protective cover towards a tubular base portion of the protective cover, wherein the slots are adapted to receive the wings when the needle hub moves into the protective cover, and wherein the needle safety assembly further comprises a locking mechanism adapted to secure the needle hub inside the protective cover when the needle hub is in the retracted position, characterized in that the locking mechanism comprises at least one pair of first and second locking means (24, 42, 44) engaging with each other when the needle hub is in the retracted position, wherein the first locking means is provided on the needle hub and the second locking means (42, 44) is provided on the protective cover, and the first locking means is formed such that a radial dimension of the first locking means can be reduced against a restoring force and the second locking means comprises a locking tongue extending towards a proximal end of the protective cover and adapted to engage with the first locking means when the needle hub is in the retracted position. wherein the needle is attached to a needle hub which has wings provided on opposite sides of the needle hub and which can be moved relative to the protective cover from a position of use in which at least the tip of the needle is outside of the protective cover into a retracted position in which the needle is fully received in the protective cover, wherein the protective cover is of generally tubular shape and defines two opposite axial slots which extend from a distal end of the protective cover towards a tubular base portion of the protective cover, wherein the slots are adapted to receive the wings when the needle hub moves into the protective cover, and
A catalyst for hydrogenating aldehydes to alcohols comprising from 10 to 70 wt. % copper oxide, from 30 to 90 wt. % zinc oxide and promoters comprising one or more alkaline earth metal compounds and one or more transition metal compounds, wherein the transition metal is selected from the group consisting of nickel, cobalt, silver, and mixtures thereof.