mhurhangee/patent-ind-claim-en huggingface dataset:
A method for using a campaign management platform to discover undiscovered geographic regions comprising: determining , by the campaign management platform , a geographic area with no known road segments represented in a geographic database, with a number of known road segments below a first threshold value, or where a likelihood of undiscovered road segments is above a second threshold value; generating a sensor data request specifying a sensor data collection event to be performed within the geographic area, wherein the sensor data collection event is part of a campaign to discover digital map data for the geographic area; transmitting the sensor data request to a plurality of vehicles , wherein the plurality of vehicles , upon reception of the sensor data request , performs the sensor data collection event in the geographic area to collect sensor data, wherein the sensor data request specifies collecting vehicle pose path data as the sensor data, wherein the vehicle pose path data represents a time-ordered sequence of location points associated with a drive by the vehicle ; receiving the sensor data collected from the plurality of vehicles in response to the sensor data request ; processing the sensor data to generate the digital map data for the geographic area, characterized by processing the vehicle pose path data to identify a pattern of driving within the geographic area, wherein the digital map data is generated based on the pattern of driving and confirming the pattern of driving as corresponding to a road segment within the geographic area; and updating the digital map data by initiating an update campaign to collect additional sensor data on other sensor data types for the road segments, the geographic area, or a combination thereof based on the confirming of the pattern of driving, wherein the digital map data is further generated based on the additional sensor data. determining , by the campaign management platform , a geographic area with no known road segments represented in a geographic database, with a number of known road segments below a first threshold value, or where a likelihood of undiscovered road segments is above a second threshold value; generating a sensor data request specifying a sensor data collection event to be performed within the geographic area, wherein the sensor data collection event is part of a campaign to discover digital map data for the geographic area; transmitting the sensor data request to a plurality of vehicles , wherein the plurality of vehicles , upon reception of the sensor data request , performs the sensor data collection event in the geographic area to collect sensor data, wherein the sensor data request specifies collecting vehicle pose path data as the sensor data, wherein the vehicle pose path data represents a time-ordered sequence of location points associated with a drive by the vehicle ; receiving the sensor data collected from the plurality of vehicles in response to the sensor data request ; processing the sensor data to generate the digital map data for the geographic area,
A method for preparing glycolic acid and methyl glycolate through hydrolysis of methyl methoxyacetate and methoxyacetic acid, comprising: allowing raw materials comprising the methyl methoxyacetate, the methoxyacetic acid, and water to contact and react with a catalyst to produce the glycolic acid and the methyl glycolate, characterized in that the catalyst is a solid acid catalyst; the solid acid catalyst is at least one selected from the group consisting of an acidic molecular sieve catalyst, an acidic resin catalyst, and an acidic alumina catalyst; and the acidic molecular sieve catalyst comprises an acidic molecular sieve. the catalyst is a solid acid catalyst; the solid acid catalyst is at least one selected from the group consisting of an acidic molecular sieve catalyst, an acidic resin catalyst, and an acidic alumina catalyst; and the acidic molecular sieve catalyst comprises an acidic molecular sieve.
A pumping assembly for pumping a fluid from a reservoir through a line , the pumping assembly comprising: a reservoir ; a pumping chamber having an inlet connectable to provide fluid communication with the reservoir and a pump outlet ; and a force application assembly adapted to provide a compressive stroke to the pumping chamber , wherein the compressive stroke causes a restriction of retrograde flow of fluid from the pumping chamber through the inlet while urging fluid from the pumping chamber to the pump outlet, wherein at least a portion of the line is integral to a disposable component , the force application assembly is integral to a detachable reusable component , and membrane material on the disposable component is contiguous to the reusable component ; wherein the membrane material overlies regions in the line that define the pumping chamber , an inlet valve , and a passive valve for enforcing unidirectional flow toward the output; and characterised in that the force application assembly causes application of deforming forces to the membrane material overlying each of the regions defining the valves to effectuate closing of the valves. a reservoir ; a pumping chamber having an inlet connectable to provide fluid communication with the reservoir and a pump outlet ; and a force application assembly adapted to provide a compressive stroke to the pumping chamber , wherein the compressive stroke causes a restriction of retrograde flow of fluid from the pumping chamber through the inlet while urging fluid from the pumping chamber to the pump outlet, wherein at least a portion of the line is integral to a disposable component , the force application assembly is integral to a detachable reusable component , and membrane material on the disposable component is contiguous to the reusable component ; wherein the membrane material overlies regions in the line that define the pumping chamber , an inlet valve , and a passive valve for enforcing unidirectional flow toward the output; and characterised in that the force application assembly causes application of deforming forces to the membrane material overlying each of the regions defining the valves to effectuate closing of the valves.
A pump comprising: a liquid sensing device comprised in the pump and configured to sense the level of a liquid collecting outside the pump and turn the pump on/off for pumping the liquid; and a housing having a housing wall (20 configured to contain the liquid sensing device , the housing wall having an outside wall surface with an outside sensing surface , the liquid sensing device being arranged or mounted inside the housing in relation to the outsie sensing surface , in order to allow the liquid sensing device to sense the level of the liquid collecting outside the pump and touching the outside sensing surface , characterised in that the outside sensing surface has ribs configured to extend or project outwardly away from the outside wall surface , in order to prevent an object from being stuck on the outside sensing surface , so as to reduce a malfunction of the pump due to the object contacting the outside sensing surface , wherein the outside sensing surface is a flat surface, and the ribs are arranged on and project from the flat surface. a liquid sensing device comprised in the pump and configured to sense the level of a liquid collecting outside the pump and turn the pump on/off for pumping the liquid; and a housing having a housing wall (20 configured to contain the liquid sensing device , the housing wall having an outside wall surface with an outside sensing surface , the liquid sensing device being arranged or mounted inside the housing in relation to the outsie sensing surface , in order to allow the liquid sensing device to sense the level of the liquid collecting outside the pump and touching the outside sensing surface , characterised in that the outside sensing surface has ribs configured to extend or project outwardly away from the outside wall surface , in order to prevent an object from being stuck on the outside sensing surface , so as to reduce a malfunction of the pump due to the object contacting the outside sensing surface , wherein the outside sensing surface is a flat surface, and the ribs are arranged on and project from the flat surface.
A friction ring for a synchronization unit of a gear changing transmission, in which the friction ring comprises a conical friction ring body with an inner friction surface and an outer installation surface , which each delimit the friction ring body in a radial circumferential direction (U) extending perpendicular to an axial friction ring axis , wherein the inner friction surface , at a predeterminable friction angle (α 1 ), and the outer installation surface , at a predeterminable installation angle (α 2 ), each extend conically along the friction ring axis , that the friction angle (α 1 ) is different from the installation angle (α 2 ), characterized in that an anti-rotation device is provided on the friction ring body , which, with respect to the inner, conically tapering friction surface , is arranged on the side with the smaller diameter and/or extends in the direction of the friction ring axis on the outer installation surface essentially perpendicular to the friction ring axis.
An airtight lip cosmetic case of which an inside is doubly sealed, in which a lip cosmetic product inside an upper case rises and protrudes when a lower case rotates, the airtight lip cosmetic case comprising: the upper case rotatably coupled to an upper portion of the lower case and formed on a lower outer circumference thereof with a sealing shoulder ; a rising piston provided in the upper case and having the lip cosmetic product attached to an upper side of the rising piston , wherein the upper case is configured to guide a vertical movement of the rising piston within the upper case and wherein the rising piston is provided on an outer side thereof with a sealing ring ; a sealing piston coupled to an inner side of the sealing shoulder of the upper case and having a sealing blade ; and an over-cap for opening and closing the upper case , wherein the rising piston rises in a state in which the sealing ring of the rising piston comes into tight contact with an inner circumference of the upper case , and the sealing blade of the sealing piston comes into tight contact with an inner circumference of the sealing shoulder of the upper case . the upper case rotatably coupled to an upper portion of the lower case and formed on a lower outer circumference thereof with a sealing shoulder ; a rising piston provided in the upper case and having the lip cosmetic product attached to an upper side of the rising piston , wherein the upper case is configured to guide a vertical movement of the rising piston within the upper case and wherein the rising piston is provided on an outer side thereof with a sealing ring ; a sealing piston coupled to an inner side of the sealing shoulder of the upper case and having a sealing blade ; and an over-cap for opening and closing the upper case , wherein the rising piston rises in a state in which the sealing ring of the rising piston comes into tight contact with an inner circumference of the upper case , and the sealing blade of the sealing piston comes into tight contact with an inner circumference of the sealing shoulder of the upper case .
A bronze alloy containing copper (Cu), tin (Sn), bismuth (Bi), nickel (Ni), sulfur (S), and iron (Fe), wherein: the bronze alloy contains 8 to 15 mass% of Sn, 0.5 to 5.0 mass% of Bi, 0.5 to 5.0 mass% of Ni, 0.08 to 1.2 mass% of S, 0.5 to 6.0 mass% of Fe, and a balance consists of Cu and inevitable impurities, wherein a mass ratio of an Fe content to an Ni content (Fe/Ni) is 0.7 to 1.5; and the bronze alloy has a eutectoid structure in which a fine flaky copper-tin-based intermetallic compound precipitates in the α-copper and an iron-nickel-based intermetallic compound and a copper-iron-based sulfide complex are dispersed. the bronze alloy contains 8 to 15 mass% of Sn, 0.5 to 5.0 mass% of Bi, 0.5 to 5.0 mass% of Ni, 0.08 to 1.2 mass% of S, 0.5 to 6.0 mass% of Fe, and a balance consists of Cu and inevitable impurities, wherein a mass ratio of an Fe content to an Ni content (Fe/Ni) is 0.7 to 1.5; and the bronze alloy has a eutectoid structure in which a fine flaky copper-tin-based intermetallic compound precipitates in the α-copper and an iron-nickel-based intermetallic compound and a copper-iron-based sulfide complex are dispersed.
A structure comprising: a foam body comprising a thermoplastic foam comprising a polyetherimide, wherein the foam body comprises a first major surface and second major surface opposite the first major surface; wherein the first major surface and the second major surface each independently define a plurality of openings, the foam body defining channels extending partially or fully through the foam body, with each channel extending from an opening in the first major surface, an opening in the second major surface, or a pair of openings, one in the first major surface and the other in the second major surface; wherein at least a portion of the channels comprise an inward-facing channel surface reinforced by passing a heating element through the channels comprising the inward-facing channel surface; wherein the structure is characterized by a compressive strength greater than a compressive strength of the structure prior to passing the heating element through the channels comprising the inward-facing channel surface, wherein compressive strength is determined according to ASTM D695-15; wherein the foam body is characterized by a void content of 65 to 95 volume percent, wherein the void content does not include the channels through the foam body; the foam body further comprises an adhesive layer adhered to the first major surface, and a skin layer adhered to a surface of the adhesive layer opposite the first major surface; and the skin layer comprises a composite comprising a polyetherimide and glass fibers. a foam body comprising a thermoplastic foam comprising a polyetherimide, wherein the foam body comprises a first major surface and second major surface opposite the first major surface; wherein the first major surface and the second major surface each independently define a plurality of openings, the foam body defining channels extending partially or fully through the foam body, with each channel extending from an opening in the first major surface, an opening in the second major surface, or a pair of openings, one in the first major surface and the other in the second major surface; wherein at least a portion of the channels comprise an inward-facing channel surface reinforced by passing a heating element through the channels comprising the inward-facing channel surface; wherein the structure is characterized by a compressive strength greater than a compressive strength of the structure prior to passing the heating element through the channels comprising the inward-facing channel surface, wherein compressive strength is determined according to ASTM D695-15; wherein the foam body is characterized by a void content of 65 to 95 volume percent, wherein the void content does not include the channels through the foam body; the foam body further comprises an adhesive layer adhered to the first major surface, and a skin layer adhered to a surface of the adhesive layer opposite the first major surface; and the skin layer comprises a composite comprising a polyetherimide and glass fibers.
A method for controlling tension in the discharge section of a spiral-belt conveyor system, comprising: driving a conveyor belt along a helical path from an entrance to an exit on a spiral-conveyor drive drum rotated at a drum speed; driving the conveyor belt with a drive shaft driven by a take-up motor including in a discharge section of the conveyor belt's path downstream of the exit from the drive drum ; determining the tension in the conveyor belt in the discharge section ; controlling the speed of the take-up motor in a closed-loop control mode to adjust the speed of the take-up motor to maintain a constant tension in the conveyor belt in the discharge section ; determining the speed of the take-up motor ; characterised by switching from the closed-loop control mode to an open-loop control mode controlling the take-up motor to run at a constant reduced speed when the determined speed of the take-up motor drops below a predetermined stall speed level; wherein the take-up motor is controlled to run at the constant reduced speed for a predetermined period after the switch from the closed-loop control mode to the open-loop control mode; and to switch back to the closed-loop control mode when the predetermined period expires. driving a conveyor belt along a helical path from an entrance to an exit on a spiral-conveyor drive drum rotated at a drum speed; driving the conveyor belt with a drive shaft driven by a take-up motor including in a discharge section of the conveyor belt's path downstream of the exit from the drive drum ; determining the tension in the conveyor belt in the discharge section ; controlling the speed of the take-up motor in a closed-loop control mode to adjust the speed of the take-up motor to maintain a constant tension in the conveyor belt in the discharge section ; determining the speed of the take-up motor ; characterised by switching from the closed-loop control mode to an open-loop control mode controlling the take-up motor to run at a constant reduced speed when the determined speed of the take-up motor drops below a predetermined stall speed level; wherein the take-up motor is controlled to run at the constant reduced speed for a predetermined period after the switch from the closed-loop control mode to the open-loop control mode; and to switch back to the closed-loop control mode when the predetermined period expires.
A compound of formula M n (EDTA); wherein: n is an integer from 2 to 4; each M is a metal ion; and M n comprises at least two different metal ions selected from Ag, Al, Au, Ba, Bi, Tl, Ce, Co, Cu, Fe, Ga, Ir, Mo, Rh, Ru, Ti, and Zn ions. n is an integer from 2 to 4; each M is a metal ion; and M n comprises at least two different metal ions selected from Ag, Al, Au, Ba, Bi, Tl, Ce, Co, Cu, Fe, Ga, Ir, Mo, Rh, Ru, Ti, and Zn ions.
A method for collaborative spectrum sensing in a cognitive radio network, comprising: a first vehicle receiving through a cognitive radio network a plurality of sensing messages one after another, where a sensing message comprises a sensing result of availability of a channel and a piece of position information of a vehicle which generates the sensing result; when the first vehicle receives a first new sensing message comprising a first piece of position information, calculating a first distance based on first position information of the first vehicle and the first piece of position information; if the first distance is greater than a predetermined value, calculating a first count-down time based on the first position information and position information contained in sensing messages received by the first vehicle; if no new sensing message is received by the first vehicle before the first count-down time ends, the first vehicle broadcasting on the cognitive radio network a new sensing message generated by the first vehicle; if a second new sensing message comprising a second piece of position information is received by the first vehicle before end of the first count-down time, calculating a second distance based on second position information of the first vehicle and the second piece of position information; and if the second distance is greater than the predetermined value, calculating a second count-down time based on the second position information and position information contained in sensing messages received by the first vehicle. a first vehicle receiving through a cognitive radio network a plurality of sensing messages one after another, where a sensing message comprises a sensing result of availability of a channel and a piece of position information of a vehicle which generates the sensing result; when the first vehicle receives a first new sensing message comprising a first piece of position information, calculating a first distance based on first position information of the first vehicle and the first piece of position information; if the first distance is greater than a predetermined value, calculating a first count-down time based on the first position information and position information contained in sensing messages received by the first vehicle; if no new sensing message is received by the first vehicle before the first count-down time ends, the first vehicle broadcasting on the cognitive radio network a new sensing message generated by the first vehicle; if a second new sensing message comprising a second piece of position information is received by the first vehicle before end of the first count-down time, calculating a second distance based on second position information of the first vehicle and the second piece of position information; and if the second distance is greater than the predetermined value, calculating a second count-down time based on the second position information and position information contained in sensing messages received by the first vehicle.
Conveyor belt system having a conveyor belt and a device for sealing the side regions (1.2, 1. 3) of the conveyor belt , a series of sealing elements arranged at a distance (A) from one another and facing the surface of the conveyor belt being arranged on both sides of the longitudinal axis of the conveyor belt in each case in the edge region of the conveyor belt, the individual sealing elements being designed in the form of strips, are arranged at an oblique angle to the longitudinal axis of the conveyor belt and point with their inner ends in the running direction (F) of the conveyor belt, the individual sealing elements being designed as narrow guide strips , in that the ratio of the width (B) of the respective guide strip to the distance (A) between two of the guide strips which define an intermediate space is greater than 1: 3, wherein an end strip extends along the respective lateral edge of the conveyor belt , which end strip connects the outer ends of the guide strips arranged there, so that the intermediate space between the guide strips is closed off outwards towards the edge region of the conveyor belt, characterised in that the end strip is made of a rubber-elastic material and is provided with at least one adjusting means for adjusting its distance (D) relative to the surface of the conveyor belt , so that the end strip can be arranged floating above the conveyor belt at a distance in the range from 1.0 mm to 10 mm from the surface of the conveyor belt , wherein the guide strips are dimensioned with respect to the end strips so that they can also be arranged floating above the conveyor belt at a small distance from the surface of the conveyor belt .
A method executed by an apparatus comprising: receiving a user request for content, the user request being originated from a first device , wherein the user request is received at a device remote from the user; causing, responsive to the received user request for the content, receiving user's context information from a second device , wherein the second device is capable of monitoring the user's context and is separate from the first device and is local to the user; filtering the requested content based at least in part on a user's context information; and causing the filtered content to be provided to the first device . receiving a user request for content, the user request being originated from a first device , wherein the user request is received at a device remote from the user; causing, responsive to the received user request for the content, receiving user's context information from a second device , wherein the second device is capable of monitoring the user's context and is separate from the first device and is local to the user; filtering the requested content based at least in part on a user's context information; and causing the filtered content to be provided to the first device .