mhurhangee/patent-ind-claim-en huggingface dataset:
A method of recognizing an assigned passenger, the method comprising: receiving, by one or more processors of a vehicle, dispatching instructions to pick up the assigned passenger at a pickup location, the dispatching instructions including authentication information for a client computing device associated with the assigned passenger; maneuvering , by the one or more processors, the vehicle towards the pickup location in an autonomous driving mode; authenticating , by the one or more processors, the client computing device using the authentication information; after authenticating the client computing device, identifying , by the one or more processors, from sensor information generated by a sensor of the vehicle a set of pedestrians within a predetermined distance of the vehicle; after authenticating the client computing device, receiving , by the one or more processors, information from the client computing device identifying locations of the client computing device over a period of time; using , by the one or more processors, the received information to estimate a velocity of the client computing device; using, by the one or more processors, the estimated velocity to identify a subset of the set of pedestrians that is likely to be the assigned passenger; and stopping , by the one or more processors, the vehicle to allow the assigned passenger to enter the vehicle based on the subset. receiving, by one or more processors of a vehicle, dispatching instructions to pick up the assigned passenger at a pickup location, the dispatching instructions including authentication information for a client computing device associated with the assigned passenger; maneuvering , by the one or more processors, the vehicle towards the pickup location in an autonomous driving mode; authenticating , by the one or more processors, the client computing device using the authentication information; after authenticating the client computing device, identifying , by the one or more processors, from sensor information generated by a sensor of the vehicle a set of pedestrians within a predetermined distance of the vehicle; after authenticating the client computing device, receiving , by the one or more processors, information from the client computing device identifying locations of the client computing device over a period of time; using , by the one or more processors, the received information to estimate a velocity of the client computing device; using, by the one or more processors, the estimated velocity to identify a subset of the set of pedestrians that is likely to be the assigned passenger; and stopping , by the one or more processors, the vehicle to allow the assigned passenger to enter the vehicle based on the subset.
A glucose sensing complex wherein the reference fluorophore and quencher dye form a Forster Resonance Energy Transfer (FRET) pair comprising: a glucose binding agent conjugated to an assay fluorophore; and a glucose analog which is dextran and conjugated to a reference fluorophore; wherein the reference fluorophore is blue shifted relative to the assay fluorophore, and wherein the glucose analog is further conjugated to a quenching agent. a glucose binding agent conjugated to an assay fluorophore; and a glucose analog which is dextran and conjugated to a reference fluorophore; wherein the reference fluorophore is blue shifted relative to the assay fluorophore, and wherein the glucose analog is further conjugated to a quenching agent.
Mobile device for machining two wheels of a wheelset, - with at least two support rollers , for supporting a respective wheel of the wheelset; and - with at least one drive roller for driving a respective wheel of the wheelset, characterised in that - the support rollers are held such that they can rotate about a rotational axis (A11), are mounted to pivot/be displaced eccentrically in relation to the rotational axis (A11) and, in accordance with the diameter of the wheel , are height-adjustable and can be displaced/pivoted towards and away from one another. - with at least two support rollers , for supporting a respective wheel of the wheelset; and - with at least one drive roller for driving a respective wheel of the wheelset, - the support rollers are held such that they can rotate about a rotational axis (A11), are mounted to pivot/be displaced eccentrically in relation to the rotational axis (A11) and, in accordance with the diameter of the wheel , are height-adjustable and can be displaced/pivoted towards and away from one another.
Floodlight for illuminating a film-, studio-, stage-, event- and/or theatre-environment, comprising: - a reflector arrangement having a reflective inner surface that delimits a reflector interior ; and - a plurality of passive light guides having feed points which are arranged outside the reflector interior and having light output points which are arranged within the reflector interior , wherein the passive light guides are arranged along a fictitious circle and comprise longitudinal extensions that in each case are oriented perpendicular to the circumferential course of the fictitious circle, characterised in that a lens arrangement is arranged in the reflector interior and has at least two lens elements that are oriented concentrically with respect to one another. - a reflector arrangement having a reflective inner surface that delimits a reflector interior ; and - a plurality of passive light guides having feed points which are arranged outside the reflector interior and having light output points which are arranged within the reflector interior , wherein the passive light guides are arranged along a fictitious circle and comprise longitudinal extensions that in each case are oriented perpendicular to the circumferential course of the fictitious circle, characterised in that a lens arrangement is arranged in the reflector interior and has at least two lens elements that are oriented concentrically with respect to one another.
Washing machine with a filter device , wherein the washing machine comprises a washing machine housing , a drum disposed in the washing machine housing , and a door , wherein the washing machine housing has an access to the drum , wherein the door is arranged at the access of the washing machine housing , and wherein the filter device is arranged at a lower side of the access , wherein the filter device comprises a housing and filter unit for filtering water, wherein the housing comprises a water inlet and a water outlet , wherein the water inlet is arranged in a vertical direction above the water outlet , wherein the filter unit is arranged at least partially between the water inlet and the water outlet for filtering the water in the housing , wherein the housing is watertight at least between the water inlet and the water outlet , wherein the filter unit further comprises a sieve element , wherein the sieve element is arranged between the water inlet and the water outlet for filtering the water, wherein the housing further comprises an opening through which the filter unit is insertable into the housing , wherein the filter unit further comprises a closing element with which the opening of the housing is closable, characterized in that the water inlet is arranged in the vertical direction between the sieve element and the closing element .
A process for producing a Cu-containing low-alloy steel having an excellent balance between strength and low-temperature toughness required for marine structures, having a chemical composition comprising, in terms of % by mass, 0.01-0.08% C, 0.10-0.40% Si, 0.80-1.80% Mn, 0.80-2.50% Ni, 0.50-1.00% Cr, 0.80-1.50% Cu, 0.20-0.60% Mo, 0.010-0.050% Al, 0.030-0.080% Nb, 0.005-0.020% N, optionally up to 0.010% Ca, and with the balance being Fe and unavoidable impurities, wherein a 0.2% proof stress is 525 MPa or higher and a ductile/brittle fracture appearance transition temperature (FATT), as measured through a 2-mm V-notched Charpy impact test, is -70°C or lower, wherein the 0.2% proof stress and the ductile/brittle fracture appearance transition temperature are further measured utilizing the methods described in the description, the process comprising thermal refining which comprises heating a steel to a temperature in a range of 850-950°C to conduct quenching, thereafter heating the steel to a temperature in a range of [(A C3 transformation point)-80°C] to [(A C3 transformation point)-10°C] to conduct intercritical quenching, and further conducting tempering at 560-660°C.
Vehicle, in particular rail vehicle, having - a wagon body , - a first running gear , and - a second running gear arranged at a distance from the first running gear in the direction of a vehicle longitudinal axis, wherein - the wagon body is supported by a first spring device in the direction of a vehicle vertical axis on the first running gear , - the wagon body is supported by a second spring device in the direction of the vehicle vertical axis on the second running gear , - the wagon body is coupled to the first running gear via a first rolling compensation device (105; 205; 305), - the wagon body is coupled to the second running gear via a second rolling compensation device (115; 15 215; 315), - the first rolling compensation device (105; 205; 305) and the second rolling compensation device (115; 215; 315) counteract rolling movements of the wagon body in an outward arcuate direction about a rolling axis parallel to the longitudinal axis of the vehicle during curved travel, characterized in that - the first rolling compensation device (105; 205; 305) is designed and/or the first rolling compensation device (105; 205; 305) and the second rolling compensation device (115; 215; 315) are coupled to one another in such a way that a torsional load on the wagon body about the longitudinal axis of the vehicle, which is caused in particular by wind loads acting on the wagon body , is counteracted. - a wagon body , - a first running gear , and - a second running gear arranged at a distance from the first running gear in the direction of a vehicle longitudinal axis, wherein - the wagon body is supported by a first spring device in the direction of a vehicle vertical axis on the first running gear , - the wagon body is supported by a second spring device in the direction of the vehicle vertical axis on the second running gear , - the wagon body is coupled to the first running gear via a first rolling compensation device (105; 205; 305), - the wagon body is coupled to the second running gear via a second rolling compensation device (115; 15 215; 315), - the first rolling compensation device (105; 205; 305) and the second rolling compensation device (115; 215; 315) counteract rolling movements of the wagon body in an outward arcuate direction about a rolling axis parallel to the longitudinal axis of the vehicle during curved travel, - the first rolling compensation device (105; 205; 305) is designed and/or the first rolling compensation device (105; 205; 305) and the second rolling compensation device (115; 215; 315) are coupled to one another in such a way that a torsional load on the wagon body about the longitudinal axis of the vehicle, which is caused in particular by wind loads acting on the wagon body , is counteracted.
A powder-layer three-dimensional printer comprising: a build box adapted to contain a powder bed ; a smoothing device comprising a counter rotating roller having a rotational axis and a complex powder engaging face extending along the rotational axis , wherein the counter rotating roller is adapted to provide a shearing force to the surface of deposited powder in the powder bed; and a carriage adapted to move the smoothing device across the build box , wherein the smoothing device further comprises a vertically adjustable finishing roller positioned on the carriage such that the finishing roller follows the counter rotating roller as the carriage moves across the build box , wherein the powder-layer three-dimensional printer further comprises a powder dispenser positioned on the carriage such that the counter rotating roller is positioned between the powder dispenser and the vertically adjustable finishing roller , wherein the carriage is further adapted to move the powder dispenser across the build box , wherein the finishing roller is a regular cylinder having a regular, smooth cylindrical face, and wherein the complex powder engaging face is a machined or wrapped face which increases the interaction, friction, and/or shear force between the roller and powder applied to and/or contained in the powder bed relative to a cylindrical roller having a regular cylindrical face. a build box adapted to contain a powder bed ; a smoothing device comprising a counter rotating roller having a rotational axis and a complex powder engaging face extending along the rotational axis , wherein the counter rotating roller is adapted to provide a shearing force to the surface of deposited powder in the powder bed; and a carriage adapted to move the smoothing device across the build box , wherein the smoothing device further comprises a vertically adjustable finishing roller positioned on the carriage such that the finishing roller follows the counter rotating roller as the carriage moves across the build box , wherein the powder-layer three-dimensional printer further comprises a powder dispenser positioned on the carriage such that the counter rotating roller is positioned between the powder dispenser and the vertically adjustable finishing roller , wherein the carriage is further adapted to move the powder dispenser across the build box , wherein the finishing roller is a regular cylinder having a regular, smooth cylindrical face, and wherein the complex powder engaging face is a machined or wrapped face which increases the interaction, friction, and/or shear force between the roller and powder applied to and/or contained in the powder bed relative to a cylindrical roller having a regular cylindrical face.
A disposable absorbent article in the form of a diaper having a longitudinal centerline and a lateral centerline, a front waist region with a front waist edge, a rear waist region with a rear waist edge, a crotch region disposed between the front waste region and the rear waist region, and two spaced apart longitudinal side edges joining the front waist edge to the rear waist edge and comprising an assembly of components including a topsheet, a backsheet, and an absorbent core therebetween; wherein the absorbent core comprises less than 20% by weight of cellulose fibers; and wherein the absorbent core comprises zeolites; wherein the zeolites comprise at least two types of zeolites selected from the group consisting of a) a Faujasite (FAU) framework wherein: i) the sodium content expressed as Na 2 O is below 10 wt%; b) a Mordenite Framework Inverted (MFI) framework wherein: i) the sodium content expressed as Na 2 O is below 1 wt%; c) a Mordenite (MOR) framework wherein: i) the sodium content expressed as Na 2 O is below 5 wt%. wherein the absorbent core comprises less than 20% by weight of cellulose fibers; and wherein the absorbent core comprises zeolites; wherein the zeolites comprise at least two types of zeolites selected from the group consisting of a) a Faujasite (FAU) framework wherein: i) the sodium content expressed as Na 2 O is below 10 wt%; b) a Mordenite Framework Inverted (MFI) framework wherein: i) the sodium content expressed as Na 2 O is below 1 wt%; c) a Mordenite (MOR) framework wherein: i) the sodium content expressed as Na 2 O is below 5 wt%. a) a Faujasite (FAU) framework wherein: i) the sodium content expressed as Na 2 O is below 10 wt%; i) the sodium content expressed as Na 2 O is below 10 wt%; b) a Mordenite Framework Inverted (MFI) framework wherein: i) the sodium content expressed as Na 2 O is below 1 wt%; i) the sodium content expressed as Na 2 O is below 1 wt%; c) a Mordenite (MOR) framework wherein: i) the sodium content expressed as Na 2 O is below 5 wt%. i) the sodium content expressed as Na 2 O is below 5 wt%.
Method for observing a sample , including the following steps: a) illuminating said sample using a laser diode that is able to emit an incident light wave propagating toward the sample, said laser diode being supplied with a supply current, such that a laser effect is obtained when an intensity of said supply current ( i ) exceeds what is termed a threshold intensity ( i s ); b) acquiring, using an image sensor , an image of the sample, the latter being positioned between the laser diode and the image sensor , each image being representative of a light wave transmitted by the sample under the effect of said illumination; the method being characterized in that the intensity ( i ) of the supply current of said laser diode is less than or equal to what is termed a critical intensity ( i c ), said critical intensity being determined, prior to step a), according to the following preliminary steps: i) positioning the laser diode such that the incident light wave that it emits propagates as far as the image sensor ; ii) supplying the laser diode with what is termed an initial supply current whose intensity is greater than or equal to said threshold intensity ( i s ), and acquiring an image, termed initial image, using said image sensor, said initial image having transverse interference fringes; iii) modifying the intensity of the supply current and acquiring an image using the image sensor , this step being repeated until an image is acquired that has transverse interference fringes that are attenuated in comparison with the initial image, the intensity of the supply current then corresponding to the critical intensity ( i c ). a) illuminating said sample using a laser diode that is able to emit an incident light wave propagating toward the sample, said laser diode being supplied with a supply current, such that a laser effect is obtained when an intensity of said supply current ( i ) exceeds what is termed a threshold intensity ( i s ); b) acquiring, using an image sensor , an image of the sample, the latter being positioned between the laser diode and the image sensor , each image being representative of a light wave transmitted by the sample under the effect of said illumination; i) positioning the laser diode such that the incident light wave that it emits propagates as far as the image sensor ; ii) supplying the laser diode with what is termed an initial supply current whose intensity is greater than or equal to said threshold intensity ( i s ), and acquiring an image, termed initial image, using said image sensor, said initial image having transverse interference fringes; iii) modifying the intensity of the supply current and acquiring an image using the image sensor , this step being repeated until an image is acquired that has transverse interference fringes that are attenuated in comparison with the initial image, the intensity of the supply current then corresponding to the critical intensity ( i c ).
A formed catalytic material comprising: (a) a perovskite; and (b) a catalyst having the following formula: Ln1 a Ln2 b O x (OH) y wherein: Ln1 and Ln2 are each independently different lanthanide elements; O is oxygen; OH is hydroxy; a and b are a number greater than 0; and x and y are each independently numbers of 0 or greater, provided that at least one of x or y is greater than 0 (a) a perovskite; and (b) a catalyst having the following formula: Ln1 a Ln2 b O x (OH) y wherein: Ln1 and Ln2 are each independently different lanthanide elements; O is oxygen; OH is hydroxy; a and b are a number greater than 0; and x and y are each independently numbers of 0 or greater, provided that at least one of x or y is greater than 0 Ln1 and Ln2 are each independently different lanthanide elements; O is oxygen; OH is hydroxy; a and b are a number greater than 0; and x and y are each independently numbers of 0 or greater, provided that at least one of x or y is greater than 0
A process for forming a metal container from a provided container having a sidewall , wherein the sidewall has a thickness and a height, and wherein the thickness varies along the height of the sidewall by at least 0.03 mm (0.001 inch), wherein the process comprises the following step: - necking the provided container with a necking die so that a working surface of the necking die contacts a section of the sidewall and reduces a diameter of the section of the sidewall by at least 2% in a single stroke, wherein the thickness of the section of the sidewall varies along the height of the sidewall by at least 0.03 mm (0.001 inch) before and after necking. - necking the provided container with a necking die so that a working surface of the necking die contacts a section of the sidewall and reduces a diameter of the section of the sidewall by at least 2% in a single stroke, wherein the thickness of the section of the sidewall varies along the height of the sidewall by at least 0.03 mm (0.001 inch) before and after necking.
A multi-use interface for use in an elevator , the multi-use interface comprising: an input device to receive input; and a selection device associated with the input device, the selection device to select between an operation mode and a service mode , wherein the service mode allows the input device to receive a service function input, the multi-use interface generating a service function output in response to the service function input, characterized in that the operation mode allows the input device to receive a standard elevator function input, the multi-use interface generating a standard elevator function output in response to the standard elevator function input, and in that the service function input includes at least one of a panel lock operation, a panel unlock operation and a panel release operation, and the multi-use interface is associated with at least one mechanically or magnetically releasable panel . an input device to receive input; and a selection device associated with the input device, the selection device to select between an operation mode and a service mode , wherein the service mode allows the input device to receive a service function input, the multi-use interface generating a service function output in response to the service function input, characterized in that the operation mode allows the input device to receive a standard elevator function input, the multi-use interface generating a standard elevator function output in response to the standard elevator function input, and in that the service function input includes at least one of a panel lock operation, a panel unlock operation and a panel release operation, and the multi-use interface is associated with at least one mechanically or magnetically releasable panel .
A wireless communication method, performed by a first device, the method comprising: sending (S1 10) a first message frame carrying a flexible multicast service, FMS, descriptor element on a transmission link, wherein the FMS descriptor element at least comprises transmission parameters for transmitting FMS streams on a plurality of transmission links.