mhurhangee/ep-ind-claims huggingface dataset:
Valve arrangement comprising a housing having an inlet, an outlet, a flow control valve (7, 8) between said inlet and said outlet, and a differential pressure control valve (13, 14) having a movable valve element and a stationary valve element and keeping constant a pressure difference over said flow control valve (7,8) wherein said pressure control valve (13, 14) is arranged downstream said flow control valve (7, 8), and wherein said stationary valve element has a form of a cup with a circumferential wall and a closed bottom wall facing said movable valve element, said circumferential wall having at least one through going opening characterized in that said stationary valve element is surrounded by a spring, said spring acting on said movable valve element.
A female part for top hammer-drilling equipment, comprising a hollow space defined by a centre axis, which hollow space mouths in a free end of the female part and is delimited by a surrounding wall and by a stop shoulder axially spaced from the free end, a female thread formed on the inside of the wall in the shape of a ridge, which has a rotationally symmetrical, cylindrical or conical basic shape and extends helically along the inside of the wall, said ridge being concentric with the centre axis of the hollow space, and being delimited by a crest and two flanks between which a likewise helical groove runs, said groove having a bottom, said thread having full profile along a main section of a certain axial length, and comprising an end positioned between the full profile section and the stop shoulder and in which the groove runs out, wherein the depth of the groove successively diminishes towards said end, said end being defined by a borderline, which separates the groove bottom from a part surface formed in the inside of the wall, said part surface being rotationally symmetrical about the centre axis C and extending a distance axially from the borderline, characterised in that the part surface has an internal diameter D1 that coincides with the diameter of either the crest ID or the groove bottom YD.
A control surface operating system for controlling aerodynamic control surfaces of an aircraft, the system comprising: a drive system operably connected to a drive shaft, the drive system including a continuously variable transmission (308, 400); at least one actuator operably connected to the drive shaft and arranged to convert rotational movement of the drive shaft to move at least a portion of the aerodynamic control surface; and at least one control surface operably connected to the at least one actuator, wherein the at least one control surface is adjusted by the at least one actuator; characterized in that the continuously variable transmission (308, 400) includes at least two conical gear sets (404, 406) to enable variable gear ratios of the continuously variable transmission (308, 400). a drive system operably connected to a drive shaft, the drive system including a continuously variable transmission (308, 400); at least one actuator operably connected to the drive shaft and arranged to convert rotational movement of the drive shaft to move at least a portion of the aerodynamic control surface; and at least one control surface operably connected to the at least one actuator, wherein the at least one control surface is adjusted by the at least one actuator; characterized in that the continuously variable transmission (308, 400) includes at least two conical gear sets (404, 406) to enable variable gear ratios of the continuously variable transmission (308, 400).
A method for displaying images using an augmented reality, AR, device, the method comprising: receiving, from a global navigation satellite systems, GNSS, receiver, GNSS position data based on wireless signals received from a GNSS satellite; the method being characterized by determining, based on the GNSS position data, a first GNSS point within a geospatial frame at a first GNSS time within a first time range and a second GNSS point within the geospatial frame at a second GNSS time within a second time range, the first GNSS point and the second GNSS point forming a GNSS vector; determining, based on camera position and orientation, POS, data generated by one or more cameras, a first AR point within an AR frame at a first AR time within the first time range and a second AR point within the AR frame at the second AR time within the second time range, the first AR point and the second AR point forming an AR vector; shifting one of the geospatial frame and the AR frame such that the second GNSS point is aligned with the second AR point; calculating an angle formed by the GNSS vector and the AR vector; and rotating one of the geospatial frame and the AR frame to the other of the geospatial frame and the AR frame by the angle, whereby the GNSS receiver and the one or more cameras are comprised in the AR device. receiving, from a global navigation satellite systems, GNSS, receiver, GNSS position data based on wireless signals received from a GNSS satellite; the method being characterized by determining, based on the GNSS position data, a first GNSS point within a geospatial frame at a first GNSS time within a first time range and a second GNSS point within the geospatial frame at a second GNSS time within a second time range, the first GNSS point and the second GNSS point forming a GNSS vector; determining, based on camera position and orientation, POS, data generated by one or more cameras, a first AR point within an AR frame at a first AR time within the first time range and a second AR point within the AR frame at the second AR time within the second time range, the first AR point and the second AR point forming an AR vector; shifting one of the geospatial frame and the AR frame such that the second GNSS point is aligned with the second AR point; calculating an angle formed by the GNSS vector and the AR vector; and rotating one of the geospatial frame and the AR frame to the other of the geospatial frame and the AR frame by the angle, whereby the GNSS receiver and the one or more cameras are comprised in the AR device.
A method for preventing fraudulent use of a Mobile Subscriber Integrated Services Digital Network Number (MSISDN) of a mobile phone terminal in a wireless network, comprising the steps of: associating an International Mobile Subscriber Identity (IMSI) with a respective MSISDN for the mobile phone terminal; associating a provider of secure resources with the associated IMSI and MSISDN; storing the associated IMSI and MSISDN; and upon receipt of a network request for a secure resource; extracting the MSISDN from the network request; constructing a Mobile Application Part message request to the wireless network for the extracted MSISDN; obtaining the IMSI currently associated with the MSISDN in the wireless network in reply to the MAP request; comparing the obtained IMSI with the stored IMSI for the extracted MSISDN; and if the obtained IMSI does not match the stored IMSI for the extracted MSISDN, automatically notifying the provider, the method comprising the further steps of: generating a first and a second one time password and temporarily storing the first and second one time passwords; and if the obtained IMSI matches the stored IMSI, sending the first one time password to the mobile phone terminal enabling one level of access to the secure resource, or if the obtained IMSI does not match the stored IMSI, sending the second one time password to the mobile phone terminal enabling a second level of access to the secure resource. associating an International Mobile Subscriber Identity (IMSI) with a respective MSISDN for the mobile phone terminal; associating a provider of secure resources with the associated IMSI and MSISDN; storing the associated IMSI and MSISDN; and upon receipt of a network request for a secure resource; extracting the MSISDN from the network request; constructing a Mobile Application Part message request to the wireless network for the extracted MSISDN; obtaining the IMSI currently associated with the MSISDN in the wireless network in reply to the MAP request; comparing the obtained IMSI with the stored IMSI for the extracted MSISDN; and if the obtained IMSI does not match the stored IMSI for the extracted MSISDN, automatically notifying the provider, the method comprising the further steps of: generating a first and a second one time password and temporarily storing the first and second one time passwords; and if the obtained IMSI matches the stored IMSI, sending the first one time password to the mobile phone terminal enabling one level of access to the secure resource, or if the obtained IMSI does not match the stored IMSI, sending the second one time password to the mobile phone terminal enabling a second level of access to the secure resource. generating a first and a second one time password and temporarily storing the first and second one time passwords; and if the obtained IMSI matches the stored IMSI, sending the first one time password to the mobile phone terminal enabling one level of access to the secure resource, or if the obtained IMSI does not match the stored IMSI, sending the second one time password to the mobile phone terminal enabling a second level of access to the secure resource.
A method of forming an electrical resistor having a target electrical resistance by additive manufacturing comprising the steps of: forming an electrically resistive layer on a substrate; measuring an electrical resistance-related parameter of the electrically resistive layer and determining from the electrical resistance-related parameter a target length of the electrically resistive layer corresponding to the target electrical resistance; and forming a first electrically conductive terminal and a second electrically conductive terminal contacting the electrically resistive layer, said first and second electrically conductive terminals (16a, 16b) being separated by a distance corresponding to the target length, such that an electrical resistance of a portion of the electrically resistive layer extending between the first electrically conductive terminal and the second electrically conductive terminal corresponds to the target electrical resistance. forming an electrically resistive layer on a substrate; measuring an electrical resistance-related parameter of the electrically resistive layer and determining from the electrical resistance-related parameter a target length of the electrically resistive layer corresponding to the target electrical resistance; and forming a first electrically conductive terminal and a second electrically conductive terminal contacting the electrically resistive layer, said first and second electrically conductive terminals (16a, 16b) being separated by a distance corresponding to the target length, such that an electrical resistance of a portion of the electrically resistive layer extending between the first electrically conductive terminal and the second electrically conductive terminal corresponds to the target electrical resistance.
A plug of vaporisable material for a vapour generating device which generates a vapour by heating at least the base of the plug, the plug comprising: vaporisable material shaped such that it defines a cavity within the vaporisable material, characterised in that: the cavity is frusto-conical in shape, with the apex adjacent to the base of the plug and the cavity is positioned such that there is a predetermined thickness of vaporisable material between the cavity and the base of the plug; wherein the ratio of overall plug depth to thickness of vaporisable material between the base of the plug and the cavity is in the range of thirteen to one and four to one; or the thickness of the vaporisable material is 1.5 mm +/- 0.5mm. the cavity is frusto-conical in shape, with the apex adjacent to the base of the plug and the cavity is positioned such that there is a predetermined thickness of vaporisable material between the cavity and the base of the plug; wherein the ratio of overall plug depth to thickness of vaporisable material between the base of the plug and the cavity is in the range of thirteen to one and four to one; or the thickness of the vaporisable material is 1.5 mm +/- 0.5mm.
A thrust bearing (100; 200; 300) for a vehicle, comprising: an upper case (110; 210; 310) that abuts against a vehicle body-side attaching portion; and a lower case (120; 220; 320) on which the upper case (110; 210; 310) is provided so that the lower case (120; 220; 320) is rotatable with respect to the upper case (110; 210; 310) about an axial center of a piston rod used in a shock absorber of a suspension of the vehicle, characterized in that the thrust bearing (100; 200; 300) further comprises a load sensor (140; 240; 340) for measuring a load vertically acting on the suspension.
An uplink control plane signaling processing method for Vehicle to X, V2X, services, the method being applicable to a User Equipment, UE, and comprising: receiving an uplink signaling reduction mechanism indicated by a base station in first radio resource control, RRC, signaling or second RRC signaling, wherein the first RRC signaling is system information broadcast; and characterized in that the method further comprises: in response to receiving the uplink signaling reduction mechanism indicated by the base station, enabling the uplink signaling reduction mechanism by: selecting, based on macro cell uplink resources, to camp on a macro cell or to access a small cell controlled by a plurality of road side units, RSUs; and reporting current location information through an X2 interface between the plurality of RSUs and through an X2 interface between the RSUs and the base station. selecting, based on macro cell uplink resources, to camp on a macro cell or to access a small cell controlled by a plurality of road side units, RSUs; and reporting current location information through an X2 interface between the plurality of RSUs and through an X2 interface between the RSUs and the base station.
Nonwoven material comprising a core, containing: from about 95 weight percent to about 40 weight percent matrix fibers, from about 60 weight percent to about 5 weight percent core binder, where weight percentages in the core are based on the total weight of the core, and where the core has a basis weight of from about 200 gsm to about 3000 gsm, the core has a density of from about 0.015 g/cm 3 to about 0.10 g/cm 3, and the nonwoven material has sound transmission reduction of 5 decibel or greater in an LSTT sound transmission test, wherein the matrix fibers are cellulosic fibers or a mixture of cellulosic fibers and synthetic fibers; and the core binder is a bicomponent fiber binder, a latex binder, a thermoplastic powder or a mixture thereof. from about 95 weight percent to about 40 weight percent matrix fibers, from about 60 weight percent to about 5 weight percent core binder, where weight percentages in the core are based on the total weight of the core, and where the core has a basis weight of from about 200 gsm to about 3000 gsm, the core has a density of from about 0.015 g/cm 3 to about 0.10 g/cm 3, and the nonwoven material has sound transmission reduction of 5 decibel or greater in an LSTT sound transmission test,
A device for 3D concrete printing with an extruder attached movably to a robot arm or to a similar adjustment device, wherein • the extruder comprises an inlet and a nozzle outlet and a delivery channel lying in between or at least a section thereof for a liquid concrete stream, • a concrete delivery pump and a concrete delivery hose for feeding the liquid concrete are connected upstream of the extruder, • the extruder comprises an injection device for injecting a setting accelerator into the liquid concrete stream, • the extruder has a mixing tube or a mixing chamber for mixing the liquid concrete stream and the injected setting accelerator, • an injection device is provided for injecting at least one colourant into the liquid concrete stream, and wherein the injection device for the respective colourant comprises a colour injection ring with at least one associated colour injection nozzle, wherein the respective colour injection nozzle is connected via a colour pump and a colour line to a colour storage container, and wherein these components together form a colour strand, and wherein a plurality of colour strands are present and each colour strand is independent of the other colour strands, characterised in that the injection device for the respective colourant is arranged upstream of the injection device of the setting accelerator, as viewed in the flow direction of the liquid concrete stream. • the extruder comprises an inlet and a nozzle outlet and a delivery channel lying in between or at least a section thereof for a liquid concrete stream, • a concrete delivery pump and a concrete delivery hose for feeding the liquid concrete are connected upstream of the extruder, • the extruder comprises an injection device for injecting a setting accelerator into the liquid concrete stream, • the extruder has a mixing tube or a mixing chamber for mixing the liquid concrete stream and the injected setting accelerator, • an injection device is provided for injecting at least one colourant into the liquid concrete stream,
An aerosol-generating article comprising an aerosol-forming substrate and a susceptor assembly for inductively heating the aerosol-forming substrate, the susceptor assembly comprising a first susceptor and a second susceptor, the second susceptor having a Curie temperature below an ignition point of the aerosol-forming substrate, wherein at least a portion of an outer surface of the second susceptor comprises an anti-corrosion covering and wherein at least a portion of an outer surface of the first susceptor is exposed.
Regulator device for the operation of a mechanical horological movement, this regulator device (2, 32, 42, 52, 62, 72, 82) comprising: - a chassis (4, 44, 54, 64, 74); - a resonator fixed to the chassis and comprising a first annular and periodic magnetic structure (8, 8A, 8B) having a first whole number N1 of angular periods and defining a first central axis, this first magnetic structure forming the inertial part of the resonator; - a second annular and periodic magnetic structure (14, 14A, 14B, 14C, 14D) having a second whole number N2 of angular periods and defining a second central axis (16, 16A), the second number N2 being different from the first number N1, this second magnetic structure being arranged so as to be able to rotate relative to said chassis about said second central axis which has a determined position relative to this chassis; wherein at least one magnetic structure from the first and second magnetic structures has, in each of the angular periods thereof, a magnetic material; said resonator being arranged such that it has a resonance mode in which said first magnetic structure undergoes, relative to said chassis, a curvilinear translation about said second central axis with a resonance frequency F1; said first and second magnetic structures being arranged so as to have a magnetic interaction therebetween such that a rotation at a frequency F2 of the second magnetic structure relative to said chassis and about said second central axis, by application of a motor torque in a usable range of the motor torque, enables said resonance mode to be excited and such that the frequency F2 of said relative rotation of the second magnetic structure and said resonance frequency F1 have, therebetween, in said usable range of the motor torque, a determined ratio R Fr, i.e. R Fr = F1/F2, which is equal to said second whole number N2 divided by the difference ΔN between this second whole number N2 and the first whole number N1, i.e. ΔN = N2-N1 and R Fr = N2 / ΔN. - a chassis (4, 44, 54, 64, 74); - a resonator fixed to the chassis and comprising a first annular and periodic magnetic structure (8, 8A, 8B) having a first whole number N1 of angular periods and defining a first central axis, this first magnetic structure forming the inertial part of the resonator; - a second annular and periodic magnetic structure (14, 14A, 14B, 14C, 14D) having a second whole number N2 of angular periods and defining a second central axis (16, 16A), the second number N2 being different from the first number N1, this second magnetic structure being arranged so as to be able to rotate relative to said chassis about said second central axis which has a determined position relative to this chassis;
A method of making fibrous silicon nitride network structures, the method comprises the steps of: providing of a silicon powder; applying selective laser sintering on said silicon powder, thereby creating a shaped silicon network product with complex geometry and open porosity; and nitridization of said shaped silicon network product in nitrogen, ammonia diluted in nitrogen into a silicon nitride component, with the fibre growth taking place during the nitridation, wherein a catalyst in the amount of up to 10 weight per cent is added in the step of nitridization, said catalyst selected from a group consisting of Ni, Fe, carbon-black, NiO, MnO, Cr 2 O 3, CeO 2, Co 3 O 4, Fe 2 O 3. providing of a silicon powder; applying selective laser sintering on said silicon powder, thereby creating a shaped silicon network product with complex geometry and open porosity; and nitridization of said shaped silicon network product in nitrogen, ammonia diluted in nitrogen into a silicon nitride component, with the fibre growth taking place during the nitridation,
A computer implemented method of performing image registration between volumetric image data associated with an object and surface topology image data associated with the object, wherein the surface topology image data is obtained by a surface topology imaging system, the method comprising: obtaining spatial information associated with the orientation of the surface topology imaging system relative to the object; processing the spatial information to identify one or more approach viewpoints associated with the orientation of the surface topology imaging system relative to the object; processing the volumetric image data to generate, according to the one or more approach viewpoints associated with the orientation of the surface topology imaging system relative to the object, one or more partial surfaces oriented toward the surface topology imaging system such that the one or more partial surfaces exclude surface data hidden from the surface topology imaging system; and employing the one or more partial surfaces to perform image registration between the volumetric image data and the surface topology image data, thereby identifying a transformation between the volumetric image data and the surface topology image data. obtaining spatial information associated with the orientation of the surface topology imaging system relative to the object; processing the spatial information to identify one or more approach viewpoints associated with the orientation of the surface topology imaging system relative to the object; processing the volumetric image data to generate, according to the one or more approach viewpoints associated with the orientation of the surface topology imaging system relative to the object, one or more partial surfaces oriented toward the surface topology imaging system such that the one or more partial surfaces exclude surface data hidden from the surface topology imaging system; and employing the one or more partial surfaces to perform image registration between the volumetric image data and the surface topology image data, thereby identifying a transformation between the volumetric image data and the surface topology image data.