mhurhangee/ep-ind-claims huggingface dataset:
An end face node joint with rod elements for load-bearing structures and freeform bodies, comprising - at least two rod elements, wherein each rod element has an outer region, an inner region, at least two lateral regions and at least one end face region, and - a cylindrical node with upper side, underside and rounded lateral region, wherein the end face regions of the rod elements are shaped end face regions and are shaped such that at least a part of the end face regions cover a part of the rounded lateral region of the node, wherein the shaped end face regions of the rod elements adjoin the node directly and precisely with no intermediate connection, wherein the end face regions - have an extension in the area of the outer regions and/or the inner regions of the rod elements, wherein the extensions cover a part of the upper side and/or the underside of the nodes, characterized in that the end face regions are welded to the node in force-fitting manner. - at least two rod elements, wherein each rod element has an outer region, an inner region, at least two lateral regions and at least one end face region, and - a cylindrical node with upper side, underside and rounded lateral region, wherein the end face regions of the rod elements are shaped end face regions and are shaped such that at least a part of the end face regions cover a part of the rounded lateral region of the node, wherein the shaped end face regions of the rod elements adjoin the node directly and precisely with no intermediate connection, wherein the end face regions - have an extension in the area of the outer regions and/or the inner regions of the rod elements, wherein the extensions cover a part of the upper side and/or the underside of the nodes, - have an extension in the area of the outer regions and/or the inner regions of the rod elements, wherein the extensions cover a part of the upper side and/or the underside of the nodes, characterized in that the end face regions are welded to the node in force-fitting manner.
A lipid compound represented by the following formula, or a salt thereof: wherein, in the formula, R 1 and R 2 independently represent CH 3 -(CH 2) n -CH=CH-CH 2 -CH=CH-(CH 2) m - (n represents an integer of 3 to 5, and m represents an integer of 6 to 10), p represents an integer of 2 to 7, and R 3 and R 4 independently from each other represent methyl or ethyl group.
An integrated device, comprising: a first die; a second die coupled in a stacked way to the first die along a vertical axis (z); a coupling region arranged between facing surfaces (2a, 6a) of the first die and of the second die, which face one another along the vertical axis (z) and lie in a horizontal plane (xy) orthogonal to said vertical axis (z), for mechanical coupling of said first die and said second die; electrical-contact elements carried by the facing surfaces (2a, 6a) of the first die and of the second die, aligned in pairs along the vertical axis (z); and conductive regions arranged between the pairs of said electrical-contact elements carried by the facing surfaces (2a, 6a) of the first die and of the second die, for electrical coupling of said first die and said second die, characterized by comprising supporting elements, arranged at the facing surface (2a; 6a) of at least one of the first die and the second die and configured to elastically support respective electrical-contact elements. a first die; a second die coupled in a stacked way to the first die along a vertical axis (z); a coupling region arranged between facing surfaces (2a, 6a) of the first die and of the second die, which face one another along the vertical axis (z) and lie in a horizontal plane (xy) orthogonal to said vertical axis (z), for mechanical coupling of said first die and said second die; electrical-contact elements carried by the facing surfaces (2a, 6a) of the first die and of the second die, aligned in pairs along the vertical axis (z); and conductive regions arranged between the pairs of said electrical-contact elements carried by the facing surfaces (2a, 6a) of the first die and of the second die, for electrical coupling of said first die and said second die, characterized by comprising supporting elements, arranged at the facing surface (2a; 6a) of at least one of the first die and the second die and configured to elastically support respective electrical-contact elements.
A tire pressure monitoring sensor comprising at least: a sensor for measuring at least one parameter indicative of at least one condition within a tire, a non-volatile memory for storing a first program and a second program, a processing unit for executing the first program, a communication module comprising a wireless transmitter for transmitting tire condition related information and a wireless or wired receiver for loading the second program into the non-volatile memory, and a battery for powering the sensor characterized in, that the second program comprises an intermediate language and the first program comprises a runtime interpreter for interpreting the intermediate language of the second program. a sensor for measuring at least one parameter indicative of at least one condition within a tire, a non-volatile memory for storing a first program and a second program, a processing unit for executing the first program, a communication module comprising a wireless transmitter for transmitting tire condition related information and a wireless or wired receiver for loading the second program into the non-volatile memory, and a battery for powering the sensor characterized in, that the second program comprises an intermediate language and the first program comprises a runtime interpreter for interpreting the intermediate language of the second program.
Sunshade with sun protection angle adjustable to left and right, comprising a shade pedestal, a vertical bar, a horizontal bar, a diagonal bar and a shade frame, wherein • the lower end of the horizontal bar is arranged slidably on the vertical bar, • the upper end of the horizontal bar is connected to the upper part of the shade frame, • the rear end of the diagonal bar is arranged rotatably on the upper part of the vertical bar, • the front end of the diagonal bar is connected rotatably to the middle part of the horizontal bar, and • the vertical bar is secured on the shade pedestal, wherein • the upper part of the shade frame is connected rotatably to the upper end of the horizontal bar by a rotation device, • a sliding holder is provided on the vertical bar, • the lower end of the horizontal bar is connected rotatably to the sliding holder by a lower attachment piece of the horizontal bar, • a shade surface adjuster is provided between the horizontal bar and the lower attachment piece of the horizontal bar, • a shade-lengthening rib is provided on the shade frame, and • the lower end of the associated shade-lengthening rib is connected to the shade surface adjuster, • the shade surface adjuster comprises a toothed coupling sleeve and a pulling handle, • wherein the toothed coupling sleeve and the pulling handle are arranged on the horizontal bar in such a way that, when the pulling handle is pulled downwards, the annular toothed rim (10.1) detaches from the annular tooth of the toothed coupling sleeve, such that the toothed coupling sleeve can rotate and the shade frame can be pivoted for rotation to the left or right. • the lower end of the horizontal bar is arranged slidably on the vertical bar, • the upper end of the horizontal bar is connected to the upper part of the shade frame, • the rear end of the diagonal bar is arranged rotatably on the upper part of the vertical bar, • the front end of the diagonal bar is connected rotatably to the middle part of the horizontal bar, and • the vertical bar is secured on the shade pedestal, • the upper part of the shade frame is connected rotatably to the upper end of the horizontal bar by a rotation device, • a sliding holder is provided on the vertical bar, • the lower end of the horizontal bar is connected rotatably to the sliding holder by a lower attachment piece of the horizontal bar, • a shade surface adjuster is provided between the horizontal bar and the lower attachment piece of the horizontal bar, • a shade-lengthening rib is provided on the shade frame, and • the lower end of the associated shade-lengthening rib is connected to the shade surface adjuster, • the shade surface adjuster comprises a toothed coupling sleeve and a pulling handle, • wherein the toothed coupling sleeve and the pulling handle are arranged on the horizontal bar in such a way that, when the pulling handle is pulled downwards, the annular toothed rim (10.1) detaches from the annular tooth of the toothed coupling sleeve, such that the toothed coupling sleeve can rotate and the shade frame can be pivoted for rotation to the left or right.
A processing optics for workpiece processing, comprising: a birefringent polarizer element (1a, 1b) for splitting at least one input laser beam into a pair of partial beams (5a, 5b) polarized perpendicular to each other, and focusing optics disposed in the beam path after the polarizer element (1a, 1b) for focusing the partial beams (5a, 5b) onto focus zones (13a, 13b), preferably in a focal plane, characterized in that, the processing optics is designed to generate at least partially overlapping focus zones (13a, 13b) of the partial beams (5a, 5b) polarized perpendicular to each other and that the processing optics comprise a beam-shaping optics for converting an incident laser beam with a Gaussian beam profile into an emerging laser beam with a quasi-non-diffractive beam profile, wherein the beam-shaping optics is disposed in the beam path in front of the birefringent polarizer element (1a, 1b). a birefringent polarizer element (1a, 1b) for splitting at least one input laser beam into a pair of partial beams (5a, 5b) polarized perpendicular to each other, and focusing optics disposed in the beam path after the polarizer element (1a, 1b) for focusing the partial beams (5a, 5b) onto focus zones (13a, 13b), preferably in a focal plane, characterized in that, the processing optics is designed to generate at least partially overlapping focus zones (13a, 13b) of the partial beams (5a, 5b) polarized perpendicular to each other and that the processing optics comprise a beam-shaping optics for converting an incident laser beam with a Gaussian beam profile into an emerging laser beam with a quasi-non-diffractive beam profile, wherein the beam-shaping optics is disposed in the beam path in front of the birefringent polarizer element (1a, 1b).
A load sensor mounting bracket (10; 110) comprising a base portion and at least one side wall upstanding from an edge of the at least one base portion; at least one sensor attachment fixture located on the base portion and configured to facilitate attachment of the bracket (10; 110) to a sensor mounting fixture, and at least one mounting element configured to facilitate attachment of the bracket (10; 110) to a load bearing plate or a sensor support structure, the at least one mounting element extends outwardly from at least one of the at least one side wall of the base portion and is located proximate to it, characterized in that the base portion is rectangular and the mounting bracket (10;110) comprises four side walls each upstanding from an edge of the rectangular base portion.
A sealing apparatus suitable for sealing an annular gap between a shaft and a hole into which the shaft is to be inserted, the sealing apparatus comprising: a sealing apparatus body suitable for being fitted into the hole; and a slinger suitable for being attached to the shaft, wherein the sealing apparatus body includes a reinforcing ring annular around an axis line (x), and an elastic body portion which is formed with an elastic body attached to the reinforcing ring and which is annular around the axis line (x), the slinger includes a flange portion which is a portion extending toward an outer periphery side and annular around the axis line (x), the elastic body portion includes an end-face lip which is a lip extending toward one side in an axis line (x) direction, and annular around the axis line (x), wherein, in use, the end-face lip contacts a surface of the flange portion on another side in the axis line (x) direction, at least one shallow groove is formed on the surface of the flange portion of the slinger on the other side, and characterised in that a depth (h) of each of the at least one groove is equal to or less than 15 μm. a sealing apparatus body suitable for being fitted into the hole; and a slinger suitable for being attached to the shaft, wherein the sealing apparatus body includes a reinforcing ring annular around an axis line (x), and an elastic body portion which is formed with an elastic body attached to the reinforcing ring and which is annular around the axis line (x), the slinger includes a flange portion which is a portion extending toward an outer periphery side and annular around the axis line (x), the elastic body portion includes an end-face lip which is a lip extending toward one side in an axis line (x) direction, and annular around the axis line (x), wherein, in use, the end-face lip contacts a surface of the flange portion on another side in the axis line (x) direction, at least one shallow groove is formed on the surface of the flange portion of the slinger on the other side, and characterised in that a depth (h) of each of the at least one groove is equal to or less than 15 μm.
A compound of formula: (M1 2+ x M2 3+ 1-x) 1-u-v (M1' 2+ y M2' 3+ 1-y) u (M1" 2+ z M2" 3+ 1-z) v O 1-w F 1+w Wherein M1, M2, M1', M2', M1", M2" are transition metals of the d / f block or alkaline-earth elements in the periodic table; u, v, x, y and z are identical or different and are such that u+v < 1; 0 < x,y,z < 1; w = x+u(y-x)+v(z-x). M1, M2, M1', M2', M1", M2" are transition metals of the d / f block or alkaline-earth elements in the periodic table; u, v, x, y and z are identical or different and are such that u+v < 1; 0 < x,y,z < 1; w = x+u(y-x)+v(z-x).
An imaging device comprising: an imaging unit having an imaging element formed of a plurality of pixels, and configured to perform imaging under a first exposure condition to generate first image data and to perform imaging under a second exposure condition different from the first exposure condition to generate second image data, wherein the first exposure condition results in an overexposed image, and the second exposure condition results in an underexposed image; an image composition unit configured to generate composite image data with an expanded dynamic range based on the first image data and the second image data; and an image file generation unit configured to generate an image file, characterized in that the image file generation unit is configured to generate an image file in which the first image data as raw data, the second image data as raw data, the composite image data as raw data, position information related to positions of pixels mutually replaced in a first image corresponding to the first image data and a second image corresponding to the second image data when the image composition unit generates the composite image data, and information data that indicates what kind of replacement is performed, are recorded in association with one another. an imaging unit having an imaging element formed of a plurality of pixels, and configured to perform imaging under a first exposure condition to generate first image data and to perform imaging under a second exposure condition different from the first exposure condition to generate second image data, wherein the first exposure condition results in an overexposed image, and the second exposure condition results in an underexposed image; an image composition unit configured to generate composite image data with an expanded dynamic range based on the first image data and the second image data; and an image file generation unit configured to generate an image file, characterized in that the image file generation unit is configured to generate an image file in which the first image data as raw data, the second image data as raw data, the composite image data as raw data, position information related to positions of pixels mutually replaced in a first image corresponding to the first image data and a second image corresponding to the second image data when the image composition unit generates the composite image data, and information data that indicates what kind of replacement is performed, are recorded in association with one another.
Device for rotating flat items moved in a transport direction (x), in particular sheets or sheet stacks, from a first orientation (a) to a second orientation (b) about a preset total angle of rotation (α), having a first rotation device, in which the item is rotated first of all about a first angle of rotation (α1) and having at least one second rotation device, in which the item is rotated later about a second angle of rotation (α2), wherein the first rotation device and the second rotation device are arranged one behind another in transport direction (x) and each rotation device (1, 2) comprises rotation means (1a, 1b; 2a, 2b) which engage the item for rotation, characterised in that at least the first rotation device has switchable engagement means (5, 6), with which the rotation means (1a, 1b; 2a, 2b) can be engaged with or disengaged from the item at selected points in time.
A drive system comprising: a first transmission; a flexible driving member; and a disengagement assembly comprising a latching lever, wherein the latching lever is configured to switch the first transmission between a disengaged mode and an engaged mode, and wherein the latching lever is configured to move between a disengaged position corresponding to the disengaged mode and an engaged position corresponding to the engaged mode; and a remote actuator operably coupled to the flexible driving member, characterized in that responsive to actuation of the remote actuator, the flexible driving member engages a) the latching lever to move the latching lever to the engaged position to thereby place the first transmission in the engaged mode; and b) the first transmission to provide drive power from a drive shaft to a first set of wheels (40, 42). a first transmission; a flexible driving member; and a disengagement assembly comprising a latching lever, wherein the latching lever is configured to switch the first transmission between a disengaged mode and an engaged mode, and wherein the latching lever is configured to move between a disengaged position corresponding to the disengaged mode and an engaged position corresponding to the engaged mode; and a remote actuator operably coupled to the flexible driving member, characterized in that responsive to actuation of the remote actuator, the flexible driving member engages a) the latching lever to move the latching lever to the engaged position to thereby place the first transmission in the engaged mode; and b) the first transmission to provide drive power from a drive shaft to a first set of wheels (40, 42).
A camera module, comprising: an image sensor comprising multiple photosensitive pixels; a diffraction structure covering only a part of the multiple photosensitive pixels and configured to disperse incident rays irradiating to the part of the multiple photosensitive pixels into diffraction rays with different phases incident to one or more of the part of the multiple photosensitive pixels; and a signal processor configured to acquire a first sensing signal corresponding to a photosensitive pixel not covered by the diffraction structure for generating a 2D image, and acquire a second sensing signal corresponding to the diffraction rays for generating 3D information; wherein the diffraction structure comprises a plurality of diffraction regions, and each diffraction region covers one or more photosensitive pixels; and wherein the multiple photosensitive pixels constitute a photosensitive pixel array, and the plurality of diffraction regions are uniformly distributed above the photosensitive pixel array. an image sensor comprising multiple photosensitive pixels; a diffraction structure covering only a part of the multiple photosensitive pixels and configured to disperse incident rays irradiating to the part of the multiple photosensitive pixels into diffraction rays with different phases incident to one or more of the part of the multiple photosensitive pixels; and a signal processor configured to acquire a first sensing signal corresponding to a photosensitive pixel not covered by the diffraction structure for generating a 2D image, and acquire a second sensing signal corresponding to the diffraction rays for generating 3D information; wherein the diffraction structure comprises a plurality of diffraction regions, and each diffraction region covers one or more photosensitive pixels; and wherein the multiple photosensitive pixels constitute a photosensitive pixel array, and the plurality of diffraction regions are uniformly distributed above the photosensitive pixel array.
A support for a lens assembly of a lighting device, comprising a first lateral wall and a second lateral wall provided opposite said first lateral wall, wherein a support wall connecting said first lateral wall and said second lateral wall and a mounting wall opposite said support wall and connecting said first lateral wall and said second lateral wall are provided between said first lateral wall and said second lateral wall, wherein said first lateral wall, said second lateral wall, said support wall and said mounting wall are designed at a mutual distance, and a hollow space extending along a longitudinal axis of the support is formed between them, wherein said first lateral wall and/or said second lateral wall are designed to have a concave curvature in their transversal dimension with respect to the hollow space, characterized in that said hollow space has a first separating wall extending along said longitudinal axis and a second separating wall extending along said longitudinal axis, opposite to said first separating wall and spaced apart from said first separating wall, wherein each of said first separating wall and said second separating wall have a bearing profile.
A method, performed in a wireless device, of determining radio coverage for at least one small cell base station, the method comprising the steps of: - obtaining at least one path along which radio condition measurements are to be performed, - performing radio condition measurements along the at least one path, - initiating determination of radio coverage by the wireless device if the wireless device is within a certain distance from a starting point of the at least one path, - determining position estimates by the wireless device, wherein at least some of the position estimates correspond to the radio condition measurements, and - determining (S4a) radio coverage using the radio condition measurements and corresponding position estimates or reporting (S4b) the radio condition measurements and the corresponding position estimates to a radio network node for determination of radio coverage in the radio network node. - obtaining at least one path along which radio condition measurements are to be performed, - performing radio condition measurements along the at least one path, - initiating determination of radio coverage by the wireless device if the wireless device is within a certain distance from a starting point of the at least one path, - determining position estimates by the wireless device, wherein at least some of the position estimates correspond to the radio condition measurements, and - determining (S4a) radio coverage using the radio condition measurements and corresponding position estimates or reporting (S4b) the radio condition measurements and the corresponding position estimates to a radio network node for determination of radio coverage in the radio network node.