mhurhangee/patent-ind-claim-en huggingface dataset:
Method for processing measurement data of a vehicle in order to determine the beginning of traffic searching for a parking space, the measurement data being position data, wherein estimation of a parking destination is performed, characterized in that determination of an earliest point of beginning to search for a parking space is performed, and journey analysis between the point of beginning to search for a parking space and the parking destination in order to ascertain the beginning of the traffic searching for a parking space is performed using map data, the map data in this case being digital map position data indicated in degrees longitude and latitude, wherein a difference between the map data as the increase in the distance from the parking destination, and an airline difference as the interval between two successive journey positions, are computed, the increase being computed by calculating the difference between the ranges of each of two successive points from the parking destination along a route from the earliest point of beginning to search for a parking space to the parking destination, wherein the increase in the distance from the parking destination Δd map and the interval between successive position data Δd airline are put into a relationship Δd map/ Δd airline as an insufficiency function (Δe), a discrete integral being computed over the insufficiency function (Δe), wherein traffic searching for a parking space is deemed to have been identified when a threshold value of the discrete integral is exceeded. the measurement data being position data, wherein estimation of a parking destination is performed, characterized in that determination of an earliest point of beginning to search for a parking space is performed, and journey analysis between the point of beginning to search for a parking space and the parking destination in order to ascertain the beginning of the traffic searching for a parking space is performed using map data, the map data in this case being digital map position data indicated in degrees longitude and latitude, wherein a difference between the map data as the increase in the distance from the parking destination, and an airline difference as the interval between two successive journey positions, are computed, the increase being computed by calculating the difference between the ranges of each of two successive points from the parking destination along a route from the earliest point of beginning to search for a parking space to the parking destination, wherein the increase in the distance from the parking destination Δd map and the interval between successive position data Δd airline are put into a relationship Δd map/ Δd airline as an insufficiency function (Δe), a discrete integral being computed over the insufficiency function (Δe), wherein traffic searching for a parking space is deemed to have been identified when a threshold value of the discrete integral is exceeded.
Feedback actuator for a steering mechanism for motor vehicles provided with a steering adjuster which acts on the steered wheels and is controlled electronically in accordance with the driver's steering command, wherein the feedback actuator transmits the feedback from the road to a steering wheel via a steering shaft wherein the feedback actuator comprises a preloaded belt drive and an electric motor as a torque-generating means, characterized in that the belt drive comprises a spring-loaded cable pull .
Dimethyl sulfone for use in the treatment of heat stress in poultry by oral administration, wherein the dimethyl sulfone is administered to chronically heat stressed poultry.
A terminal management method, wherein the method is executed by at least three service processing units, a data dispatch unit and a control unit; the at least three service processing units comprise a first service processing unit and a second service processing unit; each service processing unit comprises at least one context cluster, and each context cluster comprises at least two user contexts; and the method comprises: sending , by the control unit, a context cluster allocation message to a third service processing unit of the at least three service processing units, wherein the context cluster allocation message comprises: a second cluster identifier corresponding to a newly allocated second context cluster, and a cluster allocation indication; and establishing , by the third service processing unit, the second context cluster in the third service processing unit according to the cluster allocation indication; sending , by the control unit, a context cluster adding message to the data dispatch unit, wherein the context cluster adding message comprises: the second cluster identifier corresponding to the newly allocated second context cluster, a cluster adding indication, and a unit identifier of the third service processing unit; and recording , by the data dispatch unit, a correspondence between the second cluster identifier and the third service processing unit according to the cluster adding indication, so as to forward service data corresponding to the second context cluster to the third service processing unit according to the correspondence. sending , by the control unit, a context cluster allocation message to a third service processing unit of the at least three service processing units, wherein the context cluster allocation message comprises: a second cluster identifier corresponding to a newly allocated second context cluster, and a cluster allocation indication; and establishing , by the third service processing unit, the second context cluster in the third service processing unit according to the cluster allocation indication; sending , by the control unit, a context cluster adding message to the data dispatch unit, wherein the context cluster adding message comprises: the second cluster identifier corresponding to the newly allocated second context cluster, a cluster adding indication, and a unit identifier of the third service processing unit; and recording , by the data dispatch unit, a correspondence between the second cluster identifier and the third service processing unit according to the cluster adding indication, so as to forward service data corresponding to the second context cluster to the third service processing unit according to the correspondence.
A cylindrical fastening element for fastening an attachment part to a building wall insulated with insulating material , comprising a through opening from a first end region of the cylindrical fastening element to a second end region of the cylindrical fastening element and comprising a sheet , wherein the fastening element is configured at the first end region in order to fasten an attachment part to the cylindrical fastening element , at least one longitudinal rib is arranged in the through opening of the cylindrical fastening element and extends from the first end region in the direction of the second end region , the cylindrical fastening element at the second end region is adapted such that a head , which can be arranged in the through-opening , of a first holding means is held in the longitudinal extension of the through-opening in the direction of the second end region by the second end region , and in the second end region , the sheet has a recess for arranging the holding means head in the through opening .
An extrusion head for additive manufacturing comprising an enclosure defining a supply chamber , the enclosure including at least one inlet port opening into the supply chamber and configured to receive a material to be extruded under pressure and a plurality of extrusion nozzles , each nozzle being in communication with said supply chamber and opening onto the exterior of the enclosure via an outlet orifice , the nozzles of the plurality of nozzles being arranged adjacent to one another with a determined spacing (I163) between each nozzle outlet orifice characterized in that the plurality of nozzles is present on a removable element of the enclosure .
Optical beam routing apparatus comprising: at least one optical input to receive an input beam ; a plurality of optical outputs; a spatial light modulator (SLM) on an optical path between said optical input and said optical outputs; and a driver for said SLM to display a kinoform on said SLM to diffract said input beam into an output beam comprising a plurality of diffraction orders, wherein a routed one of said diffraction orders is directed to at least one selected said optical output; wherein said apparatus comprises a lens or mirror arranged between said SLM and said optical outputs in said optical path, wherein said lens or mirror is configured to modify a wavefront of said output beam by displacing said optical outputs away from a focal plane defined by said lens or mirror to reduce a coupling of said output beam into said selected optical output, wherein at least part of said wavefront is modified by a phase of at least π/2; and said kinoform is configured to introduce lens power to the routed one of the diffraction orders such that the kinoform is adapted to compensate for said displacement by said lens or mirror to compensate for said reduced coupling and thereby to reduce a coupling of other diffracted light from said input beam into others of said optical outputs than said at least one selected optical output. at least one optical input to receive an input beam ; a plurality of optical outputs; a spatial light modulator (SLM) on an optical path between said optical input and said optical outputs; and a driver for said SLM to display a kinoform on said SLM to diffract said input beam into an output beam comprising a plurality of diffraction orders, wherein a routed one of said diffraction orders is directed to at least one selected said optical output; wherein said apparatus comprises a lens or mirror arranged between said SLM and said optical outputs in said optical path, wherein said lens or mirror is configured to modify a wavefront of said output beam by displacing said optical outputs away from a focal plane defined by said lens or mirror to reduce a coupling of said output beam into said selected optical output, wherein at least part of said wavefront is modified by a phase of at least π/2; and said kinoform is configured to introduce lens power to the routed one of the diffraction orders such that the kinoform is adapted to compensate for said displacement by said lens or mirror to compensate for said reduced coupling and thereby to reduce a coupling of other diffracted light from said input beam into others of said optical outputs than said at least one selected optical output.
A turbine blade comprising: a root section , for engaging with a rotor, having a platform , with: a top surface , and an edge , forming an outer boundary of the top surface , having an edge surface ; and an airfoil extending from the top surface , at least a portion of the edge surface including an ultrasonic wave scattering feature comprising surface irregularities adapted to alter a reflection path of an ultrasonic pulse wave, characterized in that the ultrasonic wave scattering feature comprises a plurality of serrated teeth that are arranged to form a plurality of ridges each interspaced with a valley and at least one of the plurality of serrated teeth has a height perpendicular to the edge surface extending between the ridge and an adjacent valley , in a range 0.4 mm to 2.0 mm. a root section , for engaging with a rotor, having a platform , with: a top surface , and an edge , forming an outer boundary of the top surface , having an edge surface ; and a top surface , and an edge , forming an outer boundary of the top surface , having an edge surface ; and an airfoil extending from the top surface , at least a portion of the edge surface including an ultrasonic wave scattering feature comprising surface irregularities adapted to alter a reflection path of an ultrasonic pulse wave, characterized in that the ultrasonic wave scattering feature comprises a plurality of serrated teeth that are arranged to form a plurality of ridges each interspaced with a valley and at least one of the plurality of serrated teeth has a height perpendicular to the edge surface extending between the ridge and an adjacent valley , in a range 0.4 mm to 2.0 mm.
A down the hole hammer comprising: a hammer bit and a fluid drivable piston capable of cyclically impacting the hammer bit ; and a fluid flow control system arranged to facilitate control of fluid available to drive the piston ; the fluid flow control system comprising: a ring having an inner diameter which forms an outer radius Ro of a flow path annulus through which a fluid from an upstream fluid supply flows to drive the piston ; and a flow control body locatable with respect to the ring to form an inner radius Ri of the flow path annulus wherein the ring and the flow control body together define the flow path annulus having an annulus radial width Aw through which fluid from the upstream supply flows to drive the down the hole hammer where Aw =Ro-Ri; characterised in that the flow control body is movable between at least a first choke position and a second choke position to vary the annulus radial width Aw. a hammer bit and a fluid drivable piston capable of cyclically impacting the hammer bit ; and a fluid flow control system arranged to facilitate control of fluid available to drive the piston ; the fluid flow control system comprising: a ring having an inner diameter which forms an outer radius Ro of a flow path annulus through which a fluid from an upstream fluid supply flows to drive the piston ; and a flow control body locatable with respect to the ring to form an inner radius Ri of the flow path annulus wherein the ring and the flow control body together define the flow path annulus having an annulus radial width Aw through which fluid from the upstream supply flows to drive the down the hole hammer where Aw =Ro-Ri; characterised in that the flow control body is movable between at least a first choke position and a second choke position to vary the annulus radial width Aw. a ring having an inner diameter which forms an outer radius Ro of a flow path annulus through which a fluid from an upstream fluid supply flows to drive the piston ; and a flow control body locatable with respect to the ring to form an inner radius Ri of the flow path annulus wherein the ring and the flow control body together define the flow path annulus having an annulus radial width Aw through which fluid from the upstream supply flows to drive the down the hole hammer where Aw =Ro-Ri; characterised in that the flow control body is movable between at least a first choke position and a second choke position to vary the annulus radial width Aw.
A damper for reducing pulsations in a gas turbine, comprises: an enclosure; a main neck extending from the enclosure ; a spacer plate disposed in the enclosure to separate the enclosure into a first cavity and a second cavity , an inner neck with a first end and a second end , extending through the spacer plate to interconnect the first cavity and the second cavity, wherein the first end of the inner neck remains in the first cavity and the second end remains in the second cavity, characterized in that , a flow deflecting member is disposed proximate the second end of the inner neck to deflect a flow passing through the inner neck and that the second end of the inner neck is blinded or plugged to prevent fluid leakage therefrom. an enclosure; a main neck extending from the enclosure ; a spacer plate disposed in the enclosure to separate the enclosure into a first cavity and a second cavity , an inner neck with a first end and a second end , extending through the spacer plate to interconnect the first cavity and the second cavity, wherein the first end of the inner neck remains in the first cavity and the second end remains in the second cavity, characterized in that , a flow deflecting member is disposed proximate the second end of the inner neck to deflect a flow passing through the inner neck and that the second end of the inner neck is blinded or plugged to prevent fluid leakage therefrom.
Steel, which consists of (in % by weight) C: 0.4 to 0.7%, Si: 0.15 to 0.5% Mn: 0.8 to 2.0% Cr: 0.3 to 1.0%, wherein the Cr content %Cr in each case meets the following condition: %Cr≥(%Ni + %Si + %Mn + %S + %Al)/5 with %Ni: respective Ni content of the steel %Si: respective Si content of the steel %Mn: respective Mn content of the steel %S: respective S content of the steel %Al: respective Al content of the steel N: 0.0015 to 0.010% Ni: 0.04 to 2% Ti: 0.005 to 0.1% V: 0.0080 to 0.1% B: 0.0005 to 0.004% Ca: 0.0005 to 0.004% P: ≤ 0.030% S: ≤ 0.005% Al: ≤ 0.05% Cu: ≤ 0.1% Nb: ≤ 0.004% H: ≤ 0.0001% O: ≤ 0.0050% and optionally Mo: 0.006 to 0.02%, remainder iron and unavoidable impurities. with %Ni: respective Ni content of the steel %Si: respective Si content of the steel %Mn: respective Mn content of the steel %S: respective S content of the steel %Al: respective Al content of the steel
A method for sharing functionalities between connected objects (IoT) of a connected-object infrastructure comprising at least one requesting IoT (IoT1), at least one providing IoT (IoT2) and at least one sharing device , said method comprising: - a step of connecting the requesting IoT (IoT1) to the at least one sharing device , - a step of communicating between the requesting IoT (IoT1) and the sharing device comprising a reception by the sharing device of a request message (MR), said request message (MR) comprising functionality data sought by the requesting IoT (IoT1), said request message (MR) being able to comprise functionality data (RP) offered by the requesting IoT (IoT1) that sent the request message (MR), - a step of the sharing device searching among previously stored offered functionality data (RP) for a match between the functionality data (RR) sought and the previously stored offered functionality data (RP) so as to identify a providing IoT (IoT2) offering the functionality (RR) sought by the requesting IoT (IoT1), - a step of sending, by the sharing device and to the requesting IoT (IoT1), a message comprising data about a communication protocol (PC) with the providing IoT (IoT2) for access to the sought functionality (RR) by the requesting IoT (IoT1), and - a step of sending, by the requesting IoT (IoT1), a sought functionality request message (MRP) between the requesting IoT (IoT1) and the providing IoT (IoT2) according to the communication protocol (PC). - a step of connecting the requesting IoT (IoT1) to the at least one sharing device , - a step of communicating between the requesting IoT (IoT1) and the sharing device comprising a reception by the sharing device of a request message (MR), said request message (MR) comprising functionality data sought by the requesting IoT (IoT1), said request message (MR) being able to comprise functionality data (RP) offered by the requesting IoT (IoT1) that sent the request message (MR), - a step of the sharing device searching among previously stored offered functionality data (RP) for a match between the functionality data (RR) sought and the previously stored offered functionality data (RP) so as to identify a providing IoT (IoT2) offering the functionality (RR) sought by the requesting IoT (IoT1), - a step of sending, by the sharing device and to the requesting IoT (IoT1), a message comprising data about a communication protocol (PC) with the providing IoT (IoT2) for access to the sought functionality (RR) by the requesting IoT (IoT1), and - a step of sending, by the requesting IoT (IoT1), a sought functionality request message (MRP) between the requesting IoT (IoT1) and the providing IoT (IoT2) according to the communication protocol (PC).
An ink composition comprising: a semi-drying solvent; a pigment; an alkyd resin; and an amine-based polymeric dispersant, wherein 5wt% or more of the alkyd resin, based on the total weight of the composition, is contained, and wherein 5wt% or more of the amine-based polymeric dispersant, based on the total weight of the composition, is contained. a semi-drying solvent; a pigment; an alkyd resin; and an amine-based polymeric dispersant, wherein 5wt% or more of the alkyd resin, based on the total weight of the composition, is contained, and wherein 5wt% or more of the amine-based polymeric dispersant, based on the total weight of the composition, is contained.
A medical simulation system comprising: a fluid pumping system for pumping fluid to a physical heart model with a shape and appearance of a human heart in order to simulate pressurized pulsating blood pressure of the physical heart model; an input (240-A) from at least one of i) an extracorporeal therapeutic device and/or ii) a drug delivery system; and a computing device coupled to the fluid pumping system; and wherein: the computing device comprises a processor and a memory coupled to each other to execute instructions; the computing device interacts with the physical heart model by generating and communicating at least one simulated heart signal (20, 132-L, 132-R); the physical heart model responds dynamically to simulate a beating motion of a live heart based on the simulated heart signal; and a reflexive action is simulated by generating at least one simulated heart signal and/or a displayed virtual data based on an algorithm using the input from the at least one of i) the extracorporeal therapeutic device and/or ii) the drug delivery system. a fluid pumping system for pumping fluid to a physical heart model with a shape and appearance of a human heart in order to simulate pressurized pulsating blood pressure of the physical heart model; an input (240-A) from at least one of i) an extracorporeal therapeutic device and/or ii) a drug delivery system; and a computing device coupled to the fluid pumping system; and wherein: the computing device comprises a processor and a memory coupled to each other to execute instructions; the computing device interacts with the physical heart model by generating and communicating at least one simulated heart signal (20, 132-L, 132-R); the physical heart model responds dynamically to simulate a beating motion of a live heart based on the simulated heart signal; and a reflexive action is simulated by generating at least one simulated heart signal and/or a displayed virtual data based on an algorithm using the input from the at least one of i) the extracorporeal therapeutic device and/or ii) the drug delivery system. the computing device comprises a processor and a memory coupled to each other to execute instructions; the computing device interacts with the physical heart model by generating and communicating at least one simulated heart signal (20, 132-L, 132-R); the physical heart model responds dynamically to simulate a beating motion of a live heart based on the simulated heart signal; and a reflexive action is simulated by generating at least one simulated heart signal and/or a displayed virtual data based on an algorithm using the input from the at least one of i) the extracorporeal therapeutic device and/or ii) the drug delivery system.