mhurhangee/ep-ind-claims huggingface dataset:
Device for a vehicle, in particular a motor vehicle, comprising at least: - a main carrier with an opening and with a movable closure element for opening up or closing off the opening, - a sensor unit with a housing unit which holds said sensor unit which is arranged in a movable manner in the main carrier, and - an articulation mechanism, wherein the housing unit is, by means of the articulation mechanism, movable in the main carrier between a first position and a second position, in which the housing unit with the sensor unit protrudes at least partially from the opening, and wherein the articulation mechanism is in the form of a multi-link mechanism and comprises at least three links, in particular a first link, a second link and a third link, and wherein the first link and the second link are articulated in a positionally fixed manner on the main carrier, in each case by way of a first link end (711, 721), and are articulated in a positionally movable manner on the housing unit or the sensor unit, in each case by way of a second link end (712, 722), and the third link is articulated between the housing unit and the closure element or between the main carrier and the closure element, wherein provision is made of a drive which is indirectly coupled in terms of movement to the first link, which is in the form of a drive link, via an intermediate articulation mechanism, and wherein the intermediate articulation mechanism is in the form a toggle-lever mechanism. - a main carrier with an opening and with a movable closure element for opening up or closing off the opening, - a sensor unit with a housing unit which holds said sensor unit which is arranged in a movable manner in the main carrier, and - an articulation mechanism, wherein the housing unit is, by means of the articulation mechanism, movable in the main carrier between a first position and a second position, in which the housing unit with the sensor unit protrudes at least partially from the opening, and wherein the articulation mechanism is in the form of a multi-link mechanism and comprises at least three links, in particular a first link, a second link and a third link, and wherein the first link and the second link are articulated in a positionally fixed manner on the main carrier, in each case by way of a first link end (711, 721), and are articulated in a positionally movable manner on the housing unit or the sensor unit, in each case by way of a second link end (712, 722), and the third link is articulated between the housing unit and the closure element or between the main carrier and the closure element, wherein provision is made of a drive which is indirectly coupled in terms of movement to the first link, which is in the form of a drive link, via an intermediate articulation mechanism, and wherein the intermediate articulation mechanism is in the form a toggle-lever mechanism.
A torque limiter embedded damper device provided between a power source-side member and an output-side member, the torque limiter embedded damper device comprising: a damper unit coupled to the output-side member; and a torque limiter unit configured to limit a torque transmitted between the power source-side member and the damper unit, wherein the damper unit includes a first plate and a second plate, the first and second plates (11, 12) opposed to each other, the first and second plates (11, 12) each having a disc shape, the first plate including a first coupling portion in an outer peripheral end thereof, the second plate including a second coupling portion in an outer peripheral end thereof, the first and second coupling portions (11c, 12c) coupled to each other, and the torque limiter unit includes a friction disc, the friction disc including a third coupling portion in an inner peripheral part thereof, the third coupling portion coupled to the first plate of the damper unit and disposed radially inside the first and second coupling portions (11c, 12c), characterized in that the second plate includes an assembling hole in a corresponding position to the third coupling portion of the friction disc. a damper unit coupled to the output-side member; and a torque limiter unit configured to limit a torque transmitted between the power source-side member and the damper unit, wherein the damper unit includes a first plate and a second plate, the first and second plates (11, 12) opposed to each other, the first and second plates (11, 12) each having a disc shape, the first plate including a first coupling portion in an outer peripheral end thereof, the second plate including a second coupling portion in an outer peripheral end thereof, the first and second coupling portions (11c, 12c) coupled to each other, and the torque limiter unit includes a friction disc, the friction disc including a third coupling portion in an inner peripheral part thereof, the third coupling portion coupled to the first plate of the damper unit and disposed radially inside the first and second coupling portions (11c, 12c), characterized in that the second plate includes an assembling hole in a corresponding position to the third coupling portion of the friction disc.
A method for transmitting data from within a wellbore to a surface location, comprising: running a downhole tool into the wellbore, wherein the downhole tool comprises a perforating gun, a sensor, a processor, and a transmitter; firing the perforating gun, thereby generating a pressure response; measuring the pressure response in the wellbore with the sensor; generating, using the processor, a measured pressure response curve based upon the pressure response; characterized by: determining, using the processor, one or more functions that approximate the measured pressure response curve; generating, using the processor, an approximate curve based at least partially upon the one or more functions, wherein at least one of the functions is selected from a group consisting of: a polynomial function, an exponential function, a sinusoidal function, a logarithmic function, and a combination thereof; and wirelessly transmitting the approximate curve from the transmitter to the surface location. running a downhole tool into the wellbore, wherein the downhole tool comprises a perforating gun, a sensor, a processor, and a transmitter; firing the perforating gun, thereby generating a pressure response; measuring the pressure response in the wellbore with the sensor; generating, using the processor, a measured pressure response curve based upon the pressure response; characterized by: determining, using the processor, one or more functions that approximate the measured pressure response curve; generating, using the processor, an approximate curve based at least partially upon the one or more functions, wherein at least one of the functions is selected from a group consisting of: a polynomial function, an exponential function, a sinusoidal function, a logarithmic function, and a combination thereof; and wirelessly transmitting the approximate curve from the transmitter to the surface location.
Reaction vessel for the preparation of hydrogen sulphide by reaction between sulphur and hydrogen, characterized in that the reaction vessel and, if appropriate, connection lines and fittings and measurement and control units consist partly or fully of a material which is resistant towards the reaction mixture and comprises aluminium, characterized in that said material is selected from the following group of materials: i) a material of materials number 2.4851 with a chemical composition of < 0.1% C, < 0.5% Si, < 1.0% Mn, < 0.02% P, < 0.015% S, 21.0-25.0% Cr, < 0.5% Cu, < 18.0% Fe, 1.0-1.7% Al, < 1.0% Co, < 0.5% Ti, 0.05-0.12% Y, and 58.0-63.0% Ni, ii) a material of materials number 2.4633 with a chemical composition with a chemical composition of 0.15-0.25% C, < 0.5% Si, < 0.50% Mn, < 0.02% P, < 0.01% S, 24.0-26.0% Cr, < 0.1% Cu, 8.0-11.0% Fe, 1.8-2.4% Al, < 0.3% Co, 0.1-0.2% Ti, 0.05-0.12% Y, and 41.0-66.0% Ni, iii) a material with materials number 3.3535 with a chemical composition with a chemical composition of < 0.4% Si, < 0.50% Mn, < 0.3% Cr, < 0.1% Cu, < 0.4% Fe, 96.0-97.5% Al, < 0.15% Ti, < 0.2% Zn, and 2.6-3.6% Mg, or iv) a material with materials number 1.4571 with a chemical composition with a chemical composition of < 0.08% C, < 1.0% Si, < 2.0% Mn, < 0.045% P, < 0.015% S, 16.5-18.5% Cr, 2.0-2.5% Mo, < 0.7% Ti, remainder Fe, and 10.5-13.5% Ni, where this material is coated with aluminium oxide or aluminium on the contact surface.
A method for scheduling enhanced uplink traffic in a cell in a cellular communication system, comprising the steps of: - estimating a rise-over-thermal measure for said cell; - computing a momentary total load in said cell based on said estimated rise-over-thermal measure; - determining a load headroom from at least a maximum allowed load and said momentary load; - scheduling future enhanced uplink traffic in dependence of said determined load headroom; and - obtaining a quantity of an own used load of enhanced uplink traffic; - obtaining a quantity of an own granted load of enhanced uplink traffic; - establishing a degree of underutilization of enhanced uplink traffic grants in said cell by estimating a utilization factor expressing a relation between said quantity of an own used load of enhanced uplink traffic and said quantity of an own granted load of enhanced uplink traffic; and said step of estimating comprises linear filtering of a number of ratios between said measure of an own used load of enhanced uplink traffic and said measure of an own granted load of enhanced uplink traffic, and whereby said step of scheduling comprises overbooking of enhanced uplink traffic in dependence on said established underutilization degree. - estimating a rise-over-thermal measure for said cell; - computing a momentary total load in said cell based on said estimated rise-over-thermal measure; - determining a load headroom from at least a maximum allowed load and said momentary load; - scheduling future enhanced uplink traffic in dependence of said determined load headroom; and - obtaining a quantity of an own used load of enhanced uplink traffic; - obtaining a quantity of an own used load of enhanced uplink traffic; - obtaining a quantity of an own granted load of enhanced uplink traffic; - establishing a degree of underutilization of enhanced uplink traffic grants in said cell by estimating a utilization factor expressing a relation between said quantity of an own used load of enhanced uplink traffic and said quantity of an own granted load of enhanced uplink traffic; and said step of estimating comprises linear filtering of a number of ratios between said measure of an own used load of enhanced uplink traffic and said measure of an own granted load of enhanced uplink traffic, and whereby said step of scheduling comprises overbooking of enhanced uplink traffic in dependence on said established underutilization degree. - establishing a degree of underutilization of enhanced uplink traffic grants in said cell by estimating a utilization factor expressing a relation between said quantity of an own used load of enhanced uplink traffic and said quantity of an own granted load of enhanced uplink traffic; and said step of estimating comprises linear filtering of a number of ratios between said measure of an own used load of enhanced uplink traffic and said measure of an own granted load of enhanced uplink traffic, and whereby said step of scheduling comprises overbooking of enhanced uplink traffic in dependence on said established underutilization degree.
A method comprising: by a computing device, detecting a touch event (510, 512, 514, 516, 601, 604, 606) on a side-mounted touchpad of the computing device during display of a current user interface of an application executing on the computing device, wherein the application comprises a navigation hierarchy that comprises a home user-interface layer, a plurality of sub user-interface layers, and a plurality of navigation flows; by the computing device, determining a particular sub user-interface layer and navigation flow that the current user interface corresponds to, wherein determining the particular navigation flow is based on: a navigation history tracking the layers to which the user has navigated; and a pre-determined hierarchical tree structure of user interface layers for the application; by the computing device, if the touch event (510, 512, 514, 516, 601, 604, 606) is a forward lateral flick event (510, 602) and there is a next sub user-interface layer in the particular navigation flow of the current user interface, then navigating to the next user-interface layer in the particular navigation flow of the current user interface; and by the computing device, if the touch event (510, 512, 514, 516, 601, 604, 606) is a backward lateral flick event (512, 604) and there is a previous sub user-interface layer in the particular navigation flow of the current user interface, then navigating to the previous user-interface layer in the particular navigation flow of the current user interface. by a computing device, detecting a touch event (510, 512, 514, 516, 601, 604, 606) on a side-mounted touchpad of the computing device during display of a current user interface of an application executing on the computing device, wherein the application comprises a navigation hierarchy that comprises a home user-interface layer, a plurality of sub user-interface layers, and a plurality of navigation flows; by the computing device, determining a particular sub user-interface layer and navigation flow that the current user interface corresponds to, wherein determining the particular navigation flow is based on: a navigation history tracking the layers to which the user has navigated; and a pre-determined hierarchical tree structure of user interface layers for the application; a navigation history tracking the layers to which the user has navigated; and a pre-determined hierarchical tree structure of user interface layers for the application; by the computing device, if the touch event (510, 512, 514, 516, 601, 604, 606) is a forward lateral flick event (510, 602) and there is a next sub user-interface layer in the particular navigation flow of the current user interface, then navigating to the next user-interface layer in the particular navigation flow of the current user interface; and by the computing device, if the touch event (510, 512, 514, 516, 601, 604, 606) is a backward lateral flick event (512, 604) and there is a previous sub user-interface layer in the particular navigation flow of the current user interface, then navigating to the previous user-interface layer in the particular navigation flow of the current user interface.
Artificial quarter for at least one bat, in particular for at least one bat, comprising, at least in part, an interior (2, 2') housing (3, 3', 3'), wherein the housing (3, 3', 3') via a connecting device can be attached to an object, in particular a building, characterised by a first, a first interior, at least partially surrounding housing and another, a further interior, at least sectionally surrounding housing (3', 3'), wherein the first and the further housing (3, 3', 3') each comprise a connecting opening (6, 6', 7, 7') and at least in a final assembly state of the artificial quarter the first interior and the further interior are connectable or connected via the connecting openings (6, 6', 7, 7'), wherein the first and the further housing (3, 3', 3') can be assembled and are present at a connection interface of two adjacent housings (3, 3`, 3') each via the connection openings (6, 6', 7, 7') for the bats; and the first housing and the further housing (3', 3") at a geodetically low geodetic location of the first and further housing (3, 3', 3') at a geodetically low position of the first and further housing (3, 3") have an entry and/or excursion opening (13, 13'). the first and the further housing (3, 3', 3') can be assembled and are present at a connection interface of two adjacent housings (3, 3`, 3') each via the connection openings (6, 6', 7, 7') for the bats; and the first housing and the further housing (3', 3") at a geodetically low geodetic location of the first and further housing (3, 3', 3') at a geodetically low position of the first and further housing (3, 3") have an entry and/or excursion opening (13, 13').
A foldable living box which has portions which are pivotable relative to each other, wherein a usable, in particular habitable, interior is produced by the pivotal movement of the portions, wherein the pivotable portions are in the form of room modules (1, 2, 3, 4, 5) of differing size, and wherein the room modules (1, 2, 3, 4, 5) are pivotable, in particular nestable, relative to each other and into each other by way of pivot axes, wherein the pivot axes are substantially parallel to each other, characterised in that the living box includes at least four room modules which respectively have at least three rigid side walls (60, 61, 62, 63) which are fixed or which can be locked relative to each other.
A combined fully organic high molecular material artificial knee joint comprising a femur condyle, a tibia liner and a tibia holder, wherein: the tibia holder comprises a platform and a stable wing positioning portion vertical thereto; the femur condyle is jointed to an upper end of the tibia liner and the platform of the tibia holder is jointed to a lower end of the tibia liner; the femur condyle, the tibia holder and the tibia liner are all formed by the high molecular material, wherein the femur condyle and the tibia holder being formed by polyether ether ketone, and the tibia liner being formed by ultra-high molecular weight polyethylene; the femur condyle buffers a slide surface of the tibia liner, the tibia holder can finely move relative to a fixed surface of the tibia liner, and buffering of the femur condyle against the slide surface of the tibia liner matches fine movement of the tibia holder relative to the fixed surface of the tibia liner.
A method for manufacturing an oxidized fiber bundle, the method comprising: joining an upstream precursor fiber bundle and a downstream precursor fiber bundle together with a joining fiber bundle; and oxidizing the joined precursor fiber bundles by feeding the joined precursor fiber bundles through an oxidization furnace, wherein the joining includes applying an oiling agent to a joint area of a joining target precursor fiber bundle before joining the joining target precursor fiber bundle and the joining fiber bundle together, and a quantity of the oiling agent adhering to the joint area is 0.15 to 0.85 wt%. joining an upstream precursor fiber bundle and a downstream precursor fiber bundle together with a joining fiber bundle; and oxidizing the joined precursor fiber bundles by feeding the joined precursor fiber bundles through an oxidization furnace, wherein the joining includes applying an oiling agent to a joint area of a joining target precursor fiber bundle before joining the joining target precursor fiber bundle and the joining fiber bundle together, and a quantity of the oiling agent adhering to the joint area is 0.15 to 0.85 wt%.
An aluminogermanosilicate SSZ-121 molecular sieve having, in its calcined form, a powder X-ray diffraction pattern with at least the following 2-theta scattering angles: 6.5±0.2, 9.5±0.2,13.0±0.2, 18.5±0.2, 19.8±0.2, 21.2±0.2, 24.0±0.2, 25.0±0.2, 26.5±0.2, 28.5±0.2 and 30.0±0.2 degrees 2-theta.
An aqueous composition comprising an aqueous solution, a silicate compound, α-TCP and a phosphorylated amino acid; wherein the amount of phosphorylated amino acid is 15-90wt% of the solid content, the combined amount of silicate compound and α-TCP is 10-85wt% of the solid content, wherein the weight ratio of the silicate compound and α-TCP is 1:0.001-100, and wherein the silicate compound is a mixture of di- and tricalcium silicate.
Linear actuator device comprising a pin that can be moved according to an axial direction with respect to a casing between a first position, in which it is at least partially housed in the casing, and a second position, in which it is moved out of the casing with respect to its position in the first position by the action of an external force acting on the pin, the pin remaining in the first position through the direct contact between said pin and a first support assembly which transmits its load through direct contact with at least one intermediate transmission element which in turn transmits its load through direct contact with a second support assembly which in turn transmits its load through direct contact with an activator element; the pin being able to be in the second position, in which the activator element is rotated about the axial direction with respect to its position in the first position, such that the second support assembly is at least partially housed in at least one housing of the activator element, allowing the sequential movement of said at least one intermediate transmission element and of the first support assembly, such that the pin is not in contact with said first support assembly whereby the first support assembly comprises at least one first spherical element which remains in direct contact with said at least one intermediate transmission element in both the first and second positions, and wherein the second support assembly comprises at least one first spherical element which remains in direct contact with the activator element and with said at least one intermediate transmission element in both the first and second positions, characterised in that the at least one first spherical element of the second support assembly further remains in contact with at least one second spherical element (7") in both the first and second positions, whereas said at least one second spherical element (7") remains in direct contact with said at least one first spherical element of the second support assembly J and with the activator element in both the first and second positions.