mhurhangee/ep-ind-claims huggingface dataset:
Method for operating a display device of a motor vehicle, by means of which on a screen an image content is shifted in a displacement step or in a plurality of displacement steps performed one after the other at an image refresh rate to a target position, predefining the target position by a memory content (Zn) of a target positon memory and the memory content (Zn) being changed as a function of at least one signal pulse (P1 to P16) that an operating element activated by a user produces, successive signal pulses (P1 to P12) being generated by the operating element at a pulse rate which is lower than an image refresh rate, characterised in that for the at least one signal pulse (P1 to P16) a sequence of several part pulses (T1 to T10) is produced and the memory content (Zn) is changed with the image refresh rate on the basis of the partial pulses (T1 to T10), wherein at least occasionally the image content is shifted with each shifting step to a target position formed from the memory content by means of a smoothing filter.
An excavator comprising: a control valve configured to control hydraulic oil to be supplied to an actuator, (7, 8, 9, 1L, 1R, 2A) based on pilot pressure; an electric operation device configured to output an operation signal; a gate lock device; a gate lock valve provided on a pilot line supplying the pilot pressure to the control valve, and configured to open or close according to a state of the gate lock device, so as to switch between a locked state and a released state; a proportional valve provided on the pilot line; and a control part configured to receive as input the operation signal, to control the proportional valve, characterised in that the control part determines, in a case where the gate lock valve is in the locked state by the gate lock device and an operation is performed on the electric operation device, the operation as an operational error. a control valve configured to control hydraulic oil to be supplied to an actuator, (7, 8, 9, 1L, 1R, 2A) based on pilot pressure; an electric operation device configured to output an operation signal; a gate lock device; a gate lock valve provided on a pilot line supplying the pilot pressure to the control valve, and configured to open or close according to a state of the gate lock device, so as to switch between a locked state and a released state; a proportional valve provided on the pilot line; and a control part configured to receive as input the operation signal, to control the proportional valve, characterised in that the control part determines, in a case where the gate lock valve is in the locked state by the gate lock device and an operation is performed on the electric operation device, the operation as an operational error.
Connecting device for connecting a corrugated pipe to a second unit, comprising a substantially socket-shaped main body having an orifice for accommodating the corrugated pipe, and a connector fitting connected to the main body for connecting the main body to the second unit, and a locking unit connected to the main body for locking the corrugated pipe in the main body, which locking unit can be moved between an open position in which the corrugated pipe can be removed from the main body and a locked position in which the corrugated pipe is locked on the main body, characterised in that the locking unit is connected to the main body by a pivotable web and the locking unit comprises at least one rigid lock back-piece and at least one locking arm (20, 22) disposed on the lock back-piece so as to be displaceable, and the lock back-piece is rigidly connected to the web and can be moved between an open position and a locked position, and the web extends substantially parallel with a central axis of the main body in the locked position.
A magnetic resonance imaging apparatus comprising, a measurement unit configured to execute a pulse sequence of diffusion-weighted imaging including a motion probing gradient pulse (408, 409) at low b-value to acquire measurement data, and a calculation unit configured to calculate a pseudo diffusion tensor of fluid within an examination target, using the measurement data acquired by the measurement unit, wherein the pseudo diffusion tensor represents mixed information of a flow velocity and diffusion, wherein the calculation unit includes a fluid parameter calculator configured to calculate a fluid parameter as an indicator representing a flow characteristic of fluid, using the pseudo diffusion tensor and an estimation model of an intra-voxel distribution of the flow velocity, wherein the fluid parameter calculator is configured to calculate dispersion of a flow velocity distribution using the pseudo diffusion tensor, calculate a flow velocity differential vector using the dispersion of the flow velocity distribution thus calculated and the estimation model, and calculate the fluid parameter based on the flow velocity differential vector, and wherein the fluid parameter calculated by the fluid parameter calculator includes at least one of the following: wall shear stress, kinetic energy or energy loss, oscillatory shear index, and pressure gradient. a measurement unit configured to execute a pulse sequence of diffusion-weighted imaging including a motion probing gradient pulse (408, 409) at low b-value to acquire measurement data, and a calculation unit configured to calculate a pseudo diffusion tensor of fluid within an examination target, using the measurement data acquired by the measurement unit, wherein the pseudo diffusion tensor represents mixed information of a flow velocity and diffusion, wherein the calculation unit includes a fluid parameter calculator configured to calculate a fluid parameter as an indicator representing a flow characteristic of fluid, using the pseudo diffusion tensor and an estimation model of an intra-voxel distribution of the flow velocity, wherein the fluid parameter calculator is configured to calculate dispersion of a flow velocity distribution using the pseudo diffusion tensor, calculate a flow velocity differential vector using the dispersion of the flow velocity distribution thus calculated and the estimation model, and calculate the fluid parameter based on the flow velocity differential vector, and wherein the fluid parameter calculated by the fluid parameter calculator includes at least one of the following: wall shear stress, kinetic energy or energy loss, oscillatory shear index, and pressure gradient.
A rail profile (210, 310, 610, 710), which is in the form of a hollow profile of a crane-supporting rail and has a guide (215, 315, 615, 715), formed in a longitudinal direction in a central cavity (216, 316, 616, 716), for accommodating a crane trolley (220, 320, 620, 720), wherein the rail profile (210, 310, 610, 710) additionally has at least one accommodating device (219, 319, 619, 719) for accommodating at least one energy chain (230, 330, 630, 730), wherein the at least one accommodating device (219, 319, 619, 719) is integrated in the rail profile (210, 310, 610, 710) and extends in the longitudinal direction thereof, wherein the at least one accommodating device (219, 319, 619, 719, 719a, 719b) for accommodating the energy chain (230, 330, 630, 730) is arranged laterally along the central cavity (216, 316, 616, 716).
A valve for use with medicinal substances comprising: a housing having a first opening and a second opening; and an elastomeric member positioned in the housing, the elastomeric member comprising a continuous peripheral wall projecting from a surface; and a slit extending through the surface, a continuous portion of the peripheral wall creating a continuous sealable contact with the housing and partitioning the housing into an upper section and a lower section, the elastomeric member configured such that upon creating a pressure differential between the upper section and the lower section of the housing: (i) upon infusion of a fluid through the first opening, the peripheral wall is deflected from the housing permitting fluid flow around the elastomeric member; and (ii) upon aspiration of a fluid through the second opening, the slit opens, permitting fluid flow through the elastomeric member wherein at least a part of the elastomeric member is lubricated. a housing having a first opening and a second opening; and an elastomeric member positioned in the housing, the elastomeric member comprising a continuous peripheral wall projecting from a surface; and a slit extending through the surface, a continuous portion of the peripheral wall creating a continuous sealable contact with the housing and partitioning the housing into an upper section and a lower section, the elastomeric member configured such that upon creating a pressure differential between the upper section and the lower section of the housing: (i) upon infusion of a fluid through the first opening, the peripheral wall is deflected from the housing permitting fluid flow around the elastomeric member; and (ii) upon aspiration of a fluid through the second opening, the slit opens, permitting fluid flow through the elastomeric member (i) upon infusion of a fluid through the first opening, the peripheral wall is deflected from the housing permitting fluid flow around the elastomeric member; and (ii) upon aspiration of a fluid through the second opening, the slit opens, permitting fluid flow through the elastomeric member wherein at least a part of the elastomeric member is lubricated.
A self-propelled driving simulator with a machine frame, which can be moved on a ground via three, preferably four or more, wheel assemblies, wherein the wheel assemblies each comprise at least one wheel, which can be moved on the ground and is arranged so as to be rotatable about a steering axis, wherein the machine frame is coupled to a control cabin, which comprises a seat for a person and operating elements for controlling the driving simulator, wherein a movement device is provided, via which the control cabin is enabled to be inclined relative to the machine frame about a pitch axis and/or a roll axis, and wherein at least one wheel assembly comprises a wheel drive for driving a wheel about the wheel axis, wherein preferably multiple wheel assemblies or all wheel assemblies each comprise at least one wheel drive for driving a wheel about the respective wheel axis, characterized in that the wheel assemblies and/or the wheels are connected to the machine frame via a kinematic arrangement, which in particular is designed as a chassis, the kinematic arrangement comprising elastic and/or damping elements such as for example a spring-damper arrangement and a wheel suspension for damping and/or attenuating uneven ground. wherein the wheel assemblies each comprise at least one wheel, which can be moved on the ground and is arranged so as to be rotatable about a steering axis, wherein the machine frame is coupled to a control cabin, which comprises a seat for a person and operating elements for controlling the driving simulator, wherein a movement device is provided, via which the control cabin is enabled to be inclined relative to the machine frame about a pitch axis and/or a roll axis, and wherein at least one wheel assembly comprises a wheel drive for driving a wheel about the wheel axis, wherein preferably multiple wheel assemblies or all wheel assemblies each comprise at least one wheel drive for driving a wheel about the respective wheel axis, characterized in that the wheel assemblies and/or the wheels are connected to the machine frame via a kinematic arrangement, which in particular is designed as a chassis, the kinematic arrangement comprising elastic and/or damping elements such as for example a spring-damper arrangement and a wheel suspension for damping and/or attenuating uneven ground.
A glass-ceramic comprising in weight%: 60-72% SiO 2, 18-23% Al 2 O 3, 2.5-4.5% Li 2 O, 0-2.5% ZrO 2, 1.5-4% TiO 2, 0-3% MgO, 0-3% ZnO, 0-5% BaO, 0-5% SrO, wherein 0 ≤ BaO+SrO ≤ 5 0-2% CaO, 0-1.5% K 2 O, 0-1.5% Na 2 O, 0-5% P 2 O 5, 0-2% B 2 O 3, 0.005-0.2% V 2 O 5, 0.12-0.4% Fe 2 O 3, 0.01-0.04% Cr 2 O 3, 0-0.05% CoO, 0-0.3% NiO, 0-0.2% CeO 2, and 0-0.6% SnO 2, and containing beta-spodumene as a predominant crystalline phase, wherein the glass ceramic exhibits a brown-grey color. 60-72% SiO 2, 18-23% Al 2 O 3, 2.5-4.5% Li 2 O, 0-2.5% ZrO 2, 1.5-4% TiO 2, 0-3% MgO, 0-3% ZnO, 0-5% BaO, 0-5% SrO, wherein 0 ≤ BaO+SrO ≤ 5 0-2% CaO, 0-1.5% K 2 O, 0-1.5% Na 2 O, 0-5% P 2 O 5, 0-2% B 2 O 3, 0.005-0.2% V 2 O 5, 0.12-0.4% Fe 2 O 3, 0.01-0.04% Cr 2 O 3, 0-0.05% CoO, 0-0.3% NiO, 0-0.2% CeO 2, and 0-0.6% SnO 2, and containing beta-spodumene as a predominant crystalline phase, wherein the glass ceramic exhibits a brown-grey color.
Measuring device for optical distance measurement, in particular handheld measuring device, comprising: a transmitting unit for emitting optical measurement radiation toward a target object; a receiving unit having a detection area for detecting optical measurement radiation returning from the target object; and wherein an evaluation unit; the detection area has a multiplicity of pixels, wherein each pixel has at least one SPAD and wherein each of the multiplicity of pixels is connected to the evaluation unit; wherein the transmitting unit and the receiving unit are designed in such a way that optical measurement radiation returning from the target object simultaneously illuminates a plurality of pixels; wherein the evaluation unit is designed to determine a distance between the measuring device and the target object on the basis of an evaluation of detection signals of a plurality of pixels, characterized in that at least some pixels each contain a plurality of SPADs. a transmitting unit for emitting optical measurement radiation toward a target object; a receiving unit having a detection area for detecting optical measurement radiation returning from the target object; and wherein an evaluation unit; the detection area has a multiplicity of pixels, wherein each pixel has at least one SPAD and wherein each of the multiplicity of pixels is connected to the evaluation unit; wherein the transmitting unit and the receiving unit are designed in such a way that optical measurement radiation returning from the target object simultaneously illuminates a plurality of pixels; wherein the evaluation unit is designed to determine a distance between the measuring device and the target object on the basis of an evaluation of detection signals of a plurality of pixels, characterized in that at least some pixels each contain a plurality of SPADs.
Process for preparing a nanocrystalline bismuthmolybdenum mixed oxide, which comprises the steps a) introduction of a solution, suspension or slurry containing a molybdenum starting compound, a bismuth starting compound, and an iron starting compound and also a nickel starting compound and a zinc starting compound into a reaction chamber by means of a carrier fluid, b) thermal treatment of the solution, suspension or slurry containing the molybdenum starting compound, the bismuth starting compound, the iron starting compound and also the zinc starting compound and the nickel starting compound in a treatment zone by means of a pulsating flow at a temperature of from 200 to 700°C, c) formation of a nanocrystalline bismuthmolybdenum mixed oxide, d) discharge of the nanocrystalline bismuthmolybdenum mixed oxide obtained in step b) and c) from the reactor, where the molybdenum starting compound is a molybdate and the bismuth starting compound is a bismuth salt. a) introduction of a solution, suspension or slurry containing a molybdenum starting compound, a bismuth starting compound, and an iron starting compound and also a nickel starting compound and a zinc starting compound into a reaction chamber by means of a carrier fluid, b) thermal treatment of the solution, suspension or slurry containing the molybdenum starting compound, the bismuth starting compound, the iron starting compound and also the zinc starting compound and the nickel starting compound in a treatment zone by means of a pulsating flow at a temperature of from 200 to 700°C, c) formation of a nanocrystalline bismuthmolybdenum mixed oxide, d) discharge of the nanocrystalline bismuthmolybdenum mixed oxide obtained in step b) and c) from the reactor,
Recessed luminaire, having a flat housing, which comprises an opening of the housing on a flat front side of the housing, and having a flat light unit, which is basically disk-shaped with a flat front side that is bulged out in a lenticular shape and with a flat backside that is bulged out in a lenticular shape, and which light unit is held in the opening of the housing by a joint (18, 26) such that the light unit is inclinable via the joint (18, 26) in at least two directions relative to the opening of the housing, wherein the light unit comprises multiple LED illuminants that are distributedly arranged around an axis that is transverse to the flat light unit, and on which axis the joint (18, 26) is arranged, wherein the light unit comprises LED illuminants only in an outer area that laterally surrounds a central area of the light unit, wherein the central area is limited to the front by a front section of the light unit, behind which front section the joint (18, 26) is arranged, and wherein the joint (18, 26) is arranged directly behind the front section at the height of a maximum diameter of the light unit and at the height of a front edge of the opening of the housing.
Rotary actuator having a stationary constituent (stator) on which a capacitive sensor surface is located, and having a constituent (rotor) which rotates against the stationary constituent and forms a touch-sensitive operating surface for the capacitive sensor surface, whereby at least one gap-establishing expedient (5', 5") is located between the touch-sensitive operating surface and the sensor surface, characterised in that a spring element (7, 7') presses the sensor surface in the direction of the operating surface.
Fuel injection valve for the intermittent injection of fuel into the combustion chamber of an internal combustion engine, having a valve housing which comprises a high-pressure chamber with a discrete accumulator chamber and defines a longitudinal axis and which, at one side, bears a nozzle body connected to the high-pressure chamber and, at the other side, has a port part with two high-pressure ports (22, 24) for high-pressure fuel lines (164, 164'), which high-pressure ports define in each case a port axis (22', 24') and are connected to the high-pressure chamber and in unthrottled fashion to one another, characterized in that the high-pressure ports (22, 24) are arranged in a common port surface of the port part so as to be oriented in the same direction and such that their port axes (22', 24') run parallel, wherein each of the two high-pressure ports (22, 24) has a conically tapering high-pressure sealing surface proceeding from a base of the respective high-pressure port (22, 24), the axis of which high-pressure sealing surface coincides with the respective port axis (22', 24'), a longitudinal bore runs, concentrically with respect to the port axis and the longitudinal axis, from the high-pressure sealing surface of the first high-pressure port through a port body forming the port part to the face side, facing away from the high-pressure ports (22, 24), a blind bore runs from the high-pressure sealing surface of the second high-pressure port in the direction of its port axis, which blind bore opens into a transverse bore, which in turn opens into the longitudinal bore, and the longitudinal bore, the blind bore and the transverse bore form a connecting line.
A floor lighting assembly comprising: a luminous composite sheet including a light guide film and a plurality of light sources, the light guide film having a top side (304, 314, 614), a bottom side opposite the top side (304, 314, 614), and an edge (210, 220) extending from the top side (304, 314, 614) to the bottom side, the light sources arranged in a row at or proximate to the edge (210, 220) of the light guide film, the light sources configured to emit light into the light guide film through the edge (210, 220); and a light transmissive carpet disposed above the top side (304, 314, 614) of the light guide film, the light transmissive carpet including a backing structure and a pile mounted to and extending from the backing structure, wherein the light guide film is configured to spread and redirect the light that is received therein through the edge (210, 220) for emitting the light through the top side (304, 314, 614) of the light guide film such that some of the light is transmitted through the light transmissive carpet; wherein the luminous composite sheet also includes a substrate (206, 606) on which the light sources are mounted, the substrate (206, 606) positioned adjacent to the edge (210, 220) of the light guide film, and a laminate coating that covers a top side (304, 314, 614) of the substrate (206, 606), the light sources and the top side (304, 314, 614) of the light guide film, wherein a top surface of the laminate coating is planar and the light transmissive carpet is disposed on the top surface. a luminous composite sheet including a light guide film and a plurality of light sources, the light guide film having a top side (304, 314, 614), a bottom side opposite the top side (304, 314, 614), and an edge (210, 220) extending from the top side (304, 314, 614) to the bottom side, the light sources arranged in a row at or proximate to the edge (210, 220) of the light guide film, the light sources configured to emit light into the light guide film through the edge (210, 220); and a light transmissive carpet disposed above the top side (304, 314, 614) of the light guide film, the light transmissive carpet including a backing structure and a pile mounted to and extending from the backing structure, wherein the light guide film is configured to spread and redirect the light that is received therein through the edge (210, 220) for emitting the light through the top side (304, 314, 614) of the light guide film such that some of the light is transmitted through the light transmissive carpet; wherein the luminous composite sheet also includes a substrate (206, 606) on which the light sources are mounted, the substrate (206, 606) positioned adjacent to the edge (210, 220) of the light guide film, and a laminate coating that covers a top side (304, 314, 614) of the substrate (206, 606), the light sources and the top side (304, 314, 614) of the light guide film, wherein a top surface of the laminate coating is planar and the light transmissive carpet is disposed on the top surface.
A method of providing a femto base station, fBS, backhaul network for interfacing a mobile device (112, 114, 116; 900) with a cellular network, performed by an apparatus, comprising: forming a communication link between a mobile device (112, 114, 116; 900) and a first fBS (102, 104, 106, 1002); communicatively coupling the first fBS (102, 104, 106, 1002) with a neighboring fBS (102, 104, 106, 1002); and routing at least a portion of traffic associated with the communication link to a core cellular network by way of the neighboring fBS (102, 104, 106, 1002). forming a communication link between a mobile device (112, 114, 116; 900) and a first fBS (102, 104, 106, 1002); communicatively coupling the first fBS (102, 104, 106, 1002) with a neighboring fBS (102, 104, 106, 1002); and routing at least a portion of traffic associated with the communication link to a core cellular network by way of the neighboring fBS (102, 104, 106, 1002).