mhurhangee/ep-ind-claims huggingface dataset:
A lamp for a vehicle, comprising: a lamp module, comprising: a light emitting unit, and a Digital Micro-mirror Device module; an interface unit configured to receive driving situation information; and a processor configured to control a resolution of output light from the lamp module based on the driving situation information by controlling the DMD module, wherein the resolution of output is an output light-controllable region in a light distribution area, wherein the processor is configured to acquire information on an object located outside of the vehicle and to control the resolution of output light from the lamp module based on the information on the object, wherein the processor is configured to acquire information on a region defined by lines on a roadway and to control the resolution of output light emitted to the region defined by the lines, wherein the region defined by the lines is a crosswalk, wherein the processor is configured to increase the resolution of output light emitted to the crosswalk. a lamp module, comprising: a light emitting unit, and a Digital Micro-mirror Device module; a light emitting unit, and a Digital Micro-mirror Device module; an interface unit configured to receive driving situation information; and a processor configured to control a resolution of output light from the lamp module based on the driving situation information by controlling the DMD module, wherein the resolution of output is an output light-controllable region in a light distribution area, wherein the processor is configured to acquire information on an object located outside of the vehicle and to control the resolution of output light from the lamp module based on the information on the object, wherein the processor is configured to acquire information on a region defined by lines on a roadway and to control the resolution of output light emitted to the region defined by the lines, wherein the region defined by the lines is a crosswalk, wherein the processor is configured to increase the resolution of output light emitted to the crosswalk.
An adjustable seat for sports cars, the seat comprising a lower seat portion with two opposite longitudinal sides, each of which is provided with - a front mechanism for connecting a front portion of the lower seat portion to a front supporting bracket, and - a rear lever hinged to a rear portion of the lower seat portion about a first horizontal hinging axis, the rear lever being hinged also to a respective rear supporting bracket about a second horizontal hinging axis; wherein each front mechanism comprises a front lever hinged to the front supporting bracket and the lower seat portion, whereby on each longitudinal side of the seat a corresponding articulated quadrilateral is formed, consisting of the front and rear levers, the lower seat portion and front and rear supporting brackets, the articulated quadrilateral allowing to move a point of the seat between two opposite positions: a first, more advanced and lower position (H'), and a second, more retracted and higher position (H"); characterized in that in use, the first horizontal hinging axis between the rear lever and the lower seat portion is located at a lower position than the second horizontal hinging axis between the rear lever and the rear supporting bracket, whereby each rear lever is subjected to tensile stress, and that the rear lever is oriented rearwardly and downwardly. - a front mechanism for connecting a front portion of the lower seat portion to a front supporting bracket, and - a rear lever hinged to a rear portion of the lower seat portion about a first horizontal hinging axis, the rear lever being hinged also to a respective rear supporting bracket about a second horizontal hinging axis; in use, the first horizontal hinging axis between the rear lever and the lower seat portion is located at a lower position than the second horizontal hinging axis between the rear lever and the rear supporting bracket, whereby each rear lever is subjected to tensile stress, and that the rear lever is oriented rearwardly and downwardly.
A hand-guided machine tool, in particular a hand-guided oscillation machine tool with an outer housing which extends essentially along a longitudinal axis and which has a gripping region which is provided for a hand of a user to grip around and to guide the machine tool, an electric drive unit essentially accommodated in this outer housing, which electric drive unit drives a drive shaft of the machine tool in a rotating manner, wherein the axis of rotation of the drive shaft is oriented essentially parallel to, or coincides with, the longitudinal axis of the outer housing, and a tool device which is essentially rigidly coupled to the electric drive unit and which is arranged in an end region of the outer housing, wherein the outer housing has a defined inner contour, wherein the electric drive unit and the tool device, insofar as they are arranged in the region of the outer housing, have a defined outer contour, wherein this outer contour and the inner contour of the outer housing have a predetermined minimum distance from one another, and wherein a number N of first support devices (31, 32) are provided on the outer contour and a number N of second support devices (36, 37) are provided on the inner contour in order to maintain this minimum distance, wherein the first support devices (31, 32) and the second support devices (36, 37) cooperate in order to keep the outer contour and the inner contour at this minimum distance from one another, wherein between a first support device (31, 32) and a respective second support device (36, 37), at least one force transmission element is arranged which, on the one hand, is elastically deformable, but which, on the other hand, opposes the deformation by means of an internal frictional resistance leading to damping, characterized in that the force transmission element is flat in the unassembled state and, in the pretensioned state, assumes a bowl-like shape between the first and second support devices (31, 32, 36, 37).
A codebook generating apparatus for generating a codebook for use in a multi-polarized multiple-input and multiple-output, 'MIMO', system including precoding matrices generated by: randomly combining a plurality of single-polarized precoding matrices, the plurality of single-polarized precoding matrices comprising 1 1 j − j and 1 1 1 − 1, assigned to a plurality of diagonal blocks arranged in a block diagonal structure in which a number of diagonal blocks corresponds to a plurality of polarization directions of transmitting antennas, wherein the size of a single-polarized precoding matrix assigned to each of the diagonal blocks is determined according to the number of transmitting antennas that have the same polarization direction, and wherein for the plurality of polarization directions, this number is two; assigning a zero matrix to each of remaining blocks excluding the diagonal blocks within the block diagonal structure; and selecting, from the precoding matrices, at least one column vector according to a transmission rank corresponding to a number of data streams in the data to be transmitted, wherein the precoding matrices are reconstructed by selecting R column vectors when the transmission rank is R. randomly combining a plurality of single-polarized precoding matrices, the plurality of single-polarized precoding matrices comprising 1 1 j − j and 1 1 1 − 1, assigned to a plurality of diagonal blocks arranged in a block diagonal structure in which a number of diagonal blocks corresponds to a plurality of polarization directions of transmitting antennas, wherein the size of a single-polarized precoding matrix assigned to each of the diagonal blocks is determined according to the number of transmitting antennas that have the same polarization direction, and wherein for the plurality of polarization directions, this number is two; assigning a zero matrix to each of remaining blocks excluding the diagonal blocks within the block diagonal structure; and selecting, from the precoding matrices, at least one column vector according to a transmission rank corresponding to a number of data streams in the data to be transmitted, wherein the precoding matrices are reconstructed by selecting R column vectors when the transmission rank is R.
A solid state light, comprising: a shell comprising a material having a first surface and a second surface opposite the first surface, at least one aperture, and texture on the first or second surface, wherein the second surface forms an interior volume; a transflective film on at least a portion of the second surface of the shell; a light section having a first side, a second side opposite the first side and coupled to the shell, and at least one aperture between the first and second sides; a light source board coupled to the light section; at least one solid state light source, wherein the light source transmits light into the interior volume, at least a portion of the light exits from the first surface, and the texture redirects the light; characterized by a pedestal heat sink on the light source board, the at least one solid state light source being on the pedestal heat sink, and by a driver circuit on the light source board for driving the light source, wherein the pedestal heat sink covers the driver circuit. a shell comprising a material having a first surface and a second surface opposite the first surface, at least one aperture, and texture on the first or second surface, wherein the second surface forms an interior volume; a transflective film on at least a portion of the second surface of the shell; a light section having a first side, a second side opposite the first side and coupled to the shell, and at least one aperture between the first and second sides; a light source board coupled to the light section; at least one solid state light source, wherein the light source transmits light into the interior volume, at least a portion of the light exits from the first surface, and the texture redirects the light; characterized by a pedestal heat sink on the light source board, the at least one solid state light source being on the pedestal heat sink, and by a driver circuit on the light source board for driving the light source, wherein the pedestal heat sink covers the driver circuit.
Liquid jet shut-off nozzle having a pre-pressure-controlled variable passage cross-section comprising - a housing having a liquid inlet and a jet outlet opening, - a jet shaping body around which flow can take place, arranged in the housing between the liquid inlet and the jet outlet opening, which jet shaping body has a conical region with a tip pointing in the direction of the jet outlet opening of the housing, - and a throttle sleeve pre-tensioned by means of a spring device towards the flow-around direction of the jet shaping body, which is displaceable relative to the housing and the jet shaping body, which has an annular piston portion guided in a pre-pressure chamber of the housing which communicates with the liquid inlet and a passage which cooperates with the conical region of the jet shaping body and which together with this defines the annular passage cross-section, characterized in that on the downstream side of the jet shaping body and the throttle sleeve, a guide sleeve having a passage which is smaller compared with the cross-section of the pre-pressure chamber and in alignment to the passage of the throttle sleeve is provided on the housing. - a housing having a liquid inlet and a jet outlet opening, - a jet shaping body around which flow can take place, arranged in the housing between the liquid inlet and the jet outlet opening, which jet shaping body has a conical region with a tip pointing in the direction of the jet outlet opening of the housing, - and a throttle sleeve pre-tensioned by means of a spring device towards the flow-around direction of the jet shaping body, which is displaceable relative to the housing and the jet shaping body, which has an annular piston portion guided in a pre-pressure chamber of the housing which communicates with the liquid inlet and a passage which cooperates with the conical region of the jet shaping body and which together with this defines the annular passage cross-section,
An optoelectronic sensor comprising a light receiver, receiving optics arranged in front of the light receiver and a focus adjustment unit having an actuator configured to move the light receiver, the focus adjustment unit comprising a parallel guide having at least one flexible holding element (28, 30), that moves the light receiver on the optical axis of the receiving optics in a constant orientation, and wherein the at least one flexible holding element (28, 30) comprises an additional heat-conducting layer, characterized in that the at least one flexible holding element (28, 30) comprises two metal layers (50a, 50b) with the heat-conducting layer between them and/or in that the heat-conducting layer is configured as a graphite foil.
Wheel suspension system for a motor vehicle having a wheel support which receives a wheel in a rotatably mounted manner, a wheel control link for the articulated connection of the wheel support to a structure which is provided for this purpose, and a steering means for steering the wheel, the wheel support being connected in a first connecting region indirectly to the link via an integral link which is connected to the wheel support and the link in each case via a pivot joint, the rotational axes of the two pivot joints (18, 22) of the integral link being oriented parallel to one another and in the vehicle longitudinal direction, and the said wheel support being connected in a second connecting region directly to the link, with the result that the wheel support and the wheel control link are connected to one another in order to steer the wheel, in such a way that the wheel support can be pivoted about a steering axis with respect to the wheel control link, the integral link being arranged in the vehicle longitudinal direction behind the wheel centre in relation to the driving direction, and completely in the interior of the wheel in the vehicle transverse direction, characterized in that the link is of L-shaped configuration, and has a transverse link region which extends substantially in the vehicle transverse direction and a longitudinal link region which extends substantially in the vehicle longitudinal direction, the transverse link region forming the short limb and the longitudinal link region forming the long limb of the L-shaped link.
Support of front-end module for a vehicle, such as a motor vehicle, comprising a heat exchange device (30, 32) through which a flow of air is intended to pass, said heat exchange device (30, 32) comprising at least one fixed heat exchanger, the heat exchange device (30, 32) also comprising an additional heat exchanger mounted such that it can move relative to the fixed heat exchanger between: - a deployed position, in which the flow of air can pass through the additional heat exchanger, and - an inactive retracted position for the additional heat exchanger, characterized in that in its deployed position the additional heat exchanger is located in the same plane as the fixed heat exchanger. - a deployed position, in which the flow of air can pass through the additional heat exchanger, and - an inactive retracted position for the additional heat exchanger,
A method for use in a computer system comprising at least one computer, the at least one computer comprising a plurality of media managers (410, 412), wherein each of the plurality of media managers (410, 412) enables the at least one computer to communicate using a respective network, the method comprising acts of: providing at least one management interface that enables an administrator to establish one or more global policies, each of which relating to at least two of the plurality of media managers (410, 412); in response to input received from the administrator via the at least one management interface, creating one or more network connection profiles that each corresponds to one of the media managers (410, 412); adding the one or more network connection profiles and the one or more global policies to a hierarchical structure in a network configuration file; receiving the network configuration file at the at least one computer; accessing each of the network connection profiles and each of the global policies from the network configuration file; and using each of the network connection profiles and each of the global policies in the network configuration file to configure the plurality of media managers (410, 412); wherein global policies apply to all networks and network connection profiles comprise information about respective networks. providing at least one management interface that enables an administrator to establish one or more global policies, each of which relating to at least two of the plurality of media managers (410, 412); in response to input received from the administrator via the at least one management interface, creating one or more network connection profiles that each corresponds to one of the media managers (410, 412); adding the one or more network connection profiles and the one or more global policies to a hierarchical structure in a network configuration file; receiving the network configuration file at the at least one computer; accessing each of the network connection profiles and each of the global policies from the network configuration file; and using each of the network connection profiles and each of the global policies in the network configuration file to configure the plurality of media managers (410, 412);
An imaging device comprising: a pixel that includes a semiconductor substrate including a first diffusion region containing a first impurity of a first conductivity type, and a second diffusion region containing a second impurity of the first conductivity type, a concentration of the first impurity in the first diffusion region being less than a concentration of the second impurity in the second diffusion region, an area of the first diffusion region being less than an area of the second diffusion region in a plan view, a photoelectric converter configured to convert light into charges, and a first transistor including a first source and a first drain, the first diffusion region functioning as one of the first source and the first drain, the second diffusion region functioning as the other of the first source and the first drain, the first diffusion region being configured to store at least a part of the charges. a semiconductor substrate including a first diffusion region containing a first impurity of a first conductivity type, and a second diffusion region containing a second impurity of the first conductivity type, a concentration of the first impurity in the first diffusion region being less than a concentration of the second impurity in the second diffusion region, an area of the first diffusion region being less than an area of the second diffusion region in a plan view, a first diffusion region containing a first impurity of a first conductivity type, and a second diffusion region containing a second impurity of the first conductivity type, a concentration of the first impurity in the first diffusion region being less than a concentration of the second impurity in the second diffusion region, an area of the first diffusion region being less than an area of the second diffusion region in a plan view, a photoelectric converter configured to convert light into charges, and a first transistor including a first source and a first drain, the first diffusion region functioning as one of the first source and the first drain, the second diffusion region functioning as the other of the first source and the first drain, the first diffusion region being configured to store at least a part of the charges.
Mechanical oscillator for a timepiece comprising an inertial mass arranged to oscillate about a neutral position under the effect of a restoring force provided by at least one elastic element, wherein said mechanical oscillator further comprises a compensation spring pivotably linked to said inertial mass by means of a substantially rigid first connecting bar, said compensation spring and said first connecting bar being arranged so as to apply a compensating force to said inertial mass which varies in function of displacement of said inertial mass from its neutral position, characterised in that said compensation spring is attached to a slider arranged to translate along a respective axis, said slider being pivotally linked to said substantially rigid first connecting bar. wherein said mechanical oscillator further comprises a compensation spring pivotably linked to said inertial mass by means of a substantially rigid first connecting bar, said compensation spring and said first connecting bar being arranged so as to apply a compensating force to said inertial mass which varies in function of displacement of said inertial mass from its neutral position, characterised in that said compensation spring is attached to a slider arranged to translate along a respective axis, said slider being pivotally linked to said substantially rigid first connecting bar.
A ride system, comprising: a ride vehicle comprising a buoyant material configured to float in a liquid; a bogie comprising a vehicle support positioned under the ride vehicle, wherein the bogie is configured to travel along a track; and an extender coupled to the vehicle support and coupled to the ride vehicle which is configured to extend and contract to different lengths, wherein the extender is configured to transition between a retracted configuration and an extended configuration to allow the ride vehicle to float in the liquid within a range of motion relative to the vehicle support, wherein the length of the extender is greater in the extended configuration than in the retracted configuration. a ride vehicle comprising a buoyant material configured to float in a liquid; a bogie comprising a vehicle support positioned under the ride vehicle, wherein the bogie is configured to travel along a track; and an extender coupled to the vehicle support and coupled to the ride vehicle which is configured to extend and contract to different lengths, wherein the extender is configured to transition between a retracted configuration and an extended configuration to allow the ride vehicle to float in the liquid within a range of motion relative to the vehicle support, wherein the length of the extender is greater in the extended configuration than in the retracted configuration.