mhurhangee/ep-ind-claims huggingface dataset:
An electronic device (100, 210) comprising: a display device configured to output an image; a parallax optical element configured to provide a light corresponding to the image output from the display device, to an eyebox of a user; and a processor (212, 340) configured to adjust a position offset parameter among parameters of the parallax optical element based on a change of a look down angle, LDA, between the eyebox and a virtual image plane formed by the display device and the parallax optical element, wherein the position offset parameter represents relative positions between the parallax optical element (320, 651) and the display device (310, 652), wherein the processor is configured to track the change of the LDA as corresponding to an angle at which a magnifying mirror that magnifies an image ray output from a display panel in the display device is rotated by a motor and wherein the processor is further configured to obtain the position offset parameter based on an LDA model representing a linear relationship between the LDA and the position offset parameter. a display device configured to output an image; a parallax optical element configured to provide a light corresponding to the image output from the display device, to an eyebox of a user; and a processor (212, 340) configured to adjust a position offset parameter among parameters of the parallax optical element based on a change of a look down angle, LDA, between the eyebox and a virtual image plane formed by the display device and the parallax optical element, wherein the position offset parameter represents relative positions between the parallax optical element (320, 651) and the display device (310, 652), wherein the processor is configured to track the change of the LDA as corresponding to an angle at which a magnifying mirror that magnifies an image ray output from a display panel in the display device is rotated by a motor and wherein the processor is further configured to obtain the position offset parameter based on an LDA model representing a linear relationship between the LDA and the position offset parameter.
A method for the plasma treatment of containers in which - at least one container with a container interior (5.1) is inserted and positioned into a plasma chamber of a plasma station, - the plasma chamber and the at least one container interior (5.1) are at least partially evacuated, - at least one container interior (5.1) of the container within the at least partially evacuated plasma chamber is provided with an inner coating by means of plasma treatment, and - after plasma treatment, a aeration step follows, in which both the plasma chamber as well as the at least one container interior (5.1) of the container are at least partially aerated, characterized in that at least the container interior (5.1) of at least one container is impinged with a gaseous, vaporous or misty sterilization medium in the plasma chamber after plasma treatment and before filling of the container in such a way that at least the container interior (5.1) is at least partially aerated with the gaseous, vaporous or misty sterilization medium during the aeration step, wherein the impingement of at least the container interior (5.1) of the container with a sterilization medium containing hydrogen peroxide and/or ozone occurs. - at least one container with a container interior (5.1) is inserted and positioned into a plasma chamber of a plasma station, - the plasma chamber and the at least one container interior (5.1) are at least partially evacuated, - at least one container interior (5.1) of the container within the at least partially evacuated plasma chamber is provided with an inner coating by means of plasma treatment, and - after plasma treatment, a aeration step follows, in which both the plasma chamber as well as the at least one container interior (5.1) of the container are at least partially aerated,
A connection element for adhering to a component surface of a first component, so that by means of the connection element, a second component is fastenable at the first component, with the connection element comprising: a. a base element having an adhesive side with an adhesive surface as well as an assembly structure for connecting with the second component, wherein b. the assembly structure is arranged on a side of the base element that is opposite to the adhesive side or arranged laterally to it, and c. the base element comprises at least one irradiation region so that the base element is irradiatable with light in the irradiation region such that light energy penetrates the base element, characterized in that d. the base element consists of a thermoplastic plastic material with a temperature of continued use of at least 130 °C which is poorly penetrable with light or not penetrable with light, and e. in the cross section, the base element has a lower thickness in the irradiation region and a transmission degree in the irradiation region is at least 20 % at a wave length of the light between 320 and 500 nm or f. the irradiation region is formed by a break-through. a. a base element having an adhesive side with an adhesive surface as well as an assembly structure for connecting with the second component, wherein b. the assembly structure is arranged on a side of the base element that is opposite to the adhesive side or arranged laterally to it, and c. the base element comprises at least one irradiation region so that the base element is irradiatable with light in the irradiation region such that light energy penetrates the base element, characterized in that d. the base element consists of a thermoplastic plastic material with a temperature of continued use of at least 130 °C which is poorly penetrable with light or not penetrable with light, and e. in the cross section, the base element has a lower thickness in the irradiation region and a transmission degree in the irradiation region is at least 20 % at a wave length of the light between 320 and 500 nm or f. the irradiation region is formed by a break-through.
An electronic switching device having a semiconducting layer that comprises inorganic semiconducting elongate nanoparticles having a longer dimension and a shorter dimension, the average ratio of the length of the longer dimension to the length of the shorter dimension for the nanoparticles of the layer being in the range 2 to 50 and the average length of the longer dimension of the nanoparticles of the layer being less than 1000 nm, wherein the nanoparticles of the layer are generally mutually aligned, at least some of the nanoparticles are fused together, and the density of the layer is at least 50% of the bulk density of the inorganic material of which the nanoparticles comprise.
A cover comprising: an inner shell comprising a first end that is open, a second end, and an interior space sized to extend over a fastener, the inner shell having a window open to the interior space and positioned between the first end and the second end; an outer shell that shrouds the inner shell, the outer shell comprising a first end that is open and a second end, the outer shell further comprising a window positioned between the open first end and the second end, the window of the outer shell being aligned away from the window of the inner shell to prevent a line of sight from an exterior of the outer shell to the interior space of the inner shell; a gap between the inner shell and the outer shell; and characterized in that it further comprises a flow path that extends between the interior space of the inner shell and the exterior of the outer shell, the flow path extending to and through the window of the inner shell, the window of the outer shell, and the gap. an inner shell comprising a first end that is open, a second end, and an interior space sized to extend over a fastener, the inner shell having a window open to the interior space and positioned between the first end and the second end; an outer shell that shrouds the inner shell, the outer shell comprising a first end that is open and a second end, the outer shell further comprising a window positioned between the open first end and the second end, the window of the outer shell being aligned away from the window of the inner shell to prevent a line of sight from an exterior of the outer shell to the interior space of the inner shell; a gap between the inner shell and the outer shell; and characterized in that it further comprises a flow path that extends between the interior space of the inner shell and the exterior of the outer shell, the flow path extending to and through the window of the inner shell, the window of the outer shell, and the gap.
Operating circuit for energizing a lamp which comprises at least one light-emitting diode, wherein the operating circuit has a primary side and a secondary side galvanically isolated therefrom, and wherein the operating circuit comprises: a clocked converter which comprises a primary coil and a secondary coil, wherein the converter is an LLC resonant converter, clocked on the primary side, with half-bridge control, a transformer (61, 62, 63) for detecting an output current (I out) of the operating circuit, and a detection device for determining an output voltage (V out) of the operating circuit, wherein the detection device comprises an inductor which is arranged on the primary side of the operating circuit and is inductively coupled to the secondary coil, wherein the detection device is configured to determine the output voltage (V out) of the operating circuit as a difference between a maximum value of a voltage at the inductor and a voltage correction that is dependent on the output current (I out) of the operating circuit, wherein the operating circuit is configured for power regulation and/or power limitation of an output power of the operating circuit depending on the determined output voltage (V out) and the output current (I out). a clocked converter which comprises a primary coil and a secondary coil, wherein the converter is an LLC resonant converter, clocked on the primary side, with half-bridge control, a transformer (61, 62, 63) for detecting an output current (I out) of the operating circuit, and a detection device for determining an output voltage (V out) of the operating circuit, wherein the detection device comprises an inductor which is arranged on the primary side of the operating circuit and is inductively coupled to the secondary coil, wherein the detection device is configured to determine the output voltage (V out) of the operating circuit as a difference between a maximum value of a voltage at the inductor and a voltage correction that is dependent on the output current (I out) of the operating circuit, wherein the operating circuit is configured for power regulation and/or power limitation of an output power of the operating circuit depending on the determined output voltage (V out) and the output current (I out).
A method of making an input channel for the prevention of settling in the flow of waste water into a grit removal unit, wherein said input channel has a depth D, comprising the step of forming one side wall of the channel to vary the channel width over the depth of the channel, whereby: the width at the bottom of the channel is W B, the width at the top of the channel is W T, and W B < W T, the width at channel depth "d" above the bottom of the channel is W d, wherein W d is greater than or equal to the channel widths at every channel depth less than "d", characterized in that said method further including retrofitting an input channel initially formed with a flat bottom and two vertical sides (32, 34) by the steps of: adding a baffle along one side of the input channel to restrict the cross sectional opening allowing flow of water therethrough, said baffle selectively narrowing the width of the channel to less than W T to aid in increasing the velocity of the flow; and securing the baffle in the input channel. the width at the bottom of the channel is W B, the width at the top of the channel is W T, and W B < W T, the width at channel depth "d" above the bottom of the channel is W d, wherein W d is greater than or equal to the channel widths at every channel depth less than "d", characterized in that said method further including retrofitting an input channel initially formed with a flat bottom and two vertical sides (32, 34) by the steps of: adding a baffle along one side of the input channel to restrict the cross sectional opening allowing flow of water therethrough, said baffle selectively narrowing the width of the channel to less than W T to aid in increasing the velocity of the flow; and securing the baffle in the input channel. adding a baffle along one side of the input channel to restrict the cross sectional opening allowing flow of water therethrough, said baffle selectively narrowing the width of the channel to less than W T to aid in increasing the velocity of the flow; and securing the baffle in the input channel.
An optoelectronic device comprising at least one nanostructure, wherein said nanostructure comprises at least one group III-V compound; wherein a hole patterned mask is present on the substrate wherein said nanostructures grow through the holes of said mask; wherein said nanostructure is a nanowire or nanopyramid, characterised in that the at least one nanostructure is grown epitaxially on the (-201) or plane of an optionally doped β-Ga 2 O 3 substrate. wherein said nanostructure comprises at least one group III-V compound; wherein a hole patterned mask is present on the substrate wherein said nanostructures grow through the holes of said mask; wherein said nanostructure is a nanowire or nanopyramid, characterised in that the at least one nanostructure is grown epitaxially on the (-201) or plane of an optionally doped β-Ga 2 O 3 substrate.
Laminated pane which has an electrically conductive coating, at least comprising an outer pane, which has an outer-side surface and an interior-side surface, and an inner pane, which has an outer-side surface and an interior-side surface, wherein the interior-side surface of the outer pane and the outer-side surface of the inner pane are connected to one another via a thermoplastic intermediate layer, and wherein between the interior-side surface of the outer pane and the outer-side surface of the inner pane at least: - the electrically conductive coating and - at least one layer of selectively absorbing nanoparticles which have an absorption within the wavelength range of 580 nm to 750 nm are arranged flat and one on top of the other. - the electrically conductive coating and - at least one layer of selectively absorbing nanoparticles which have an absorption within the wavelength range of 580 nm to 750 nm
Method for analyzing a non-planar organ in the human or animal body, on a computer or other computing device, the method comprising the steps: a. providing at least one 3D or 4D image dataset which includes the organ; b. selecting a basic plane through the 3D image dataset which at least partially intersects the organ; c. displaying the basic plane and defining the organ on the basic plane by sketching the shape of the organ, resulting in a line-shaped model of the organ; d. providing a curved profile plane which follows the curvature of the line of the line-shaped model and extends perpendicular to the basic plane; e. displaying the curved profile plane and defining the organ on the curved profile plane by sketching the shape of the organ, resulting in a line-shaped adjusted model of the organ; wherein the organ is the puborectalis muscle, and the method further comprising the step of performing length measurements on the adjusted model of the organ, wherein the method is performed on two datasets, one acquired while the puborectalis muscle is in a relaxed state and one where the puborectalis muscle is in a contracted state, and the ratio between the lengths of the organ models in the relaxed and contracted states is calculated, to obtain a measure of the strain. a. providing at least one 3D or 4D image dataset which includes the organ; b. selecting a basic plane through the 3D image dataset which at least partially intersects the organ; c. displaying the basic plane and defining the organ on the basic plane by sketching the shape of the organ, resulting in a line-shaped model of the organ; d. providing a curved profile plane which follows the curvature of the line of the line-shaped model and extends perpendicular to the basic plane; e. displaying the curved profile plane and defining the organ on the curved profile plane by sketching the shape of the organ, resulting in a line-shaped adjusted model of the organ; wherein the organ is the puborectalis muscle, and the method further comprising the step of performing length measurements on the adjusted model of the organ, wherein the method is performed on two datasets, one acquired while the puborectalis muscle is in a relaxed state and one where the puborectalis muscle is in a contracted state, and the ratio between the lengths of the organ models in the relaxed and contracted states is calculated, to obtain a measure of the strain.
Seat assembly for a cabin of a means of transportation, having: - an aisle which is arranged in a longitudinal direction (x) of the cabin, - two mutually spaced cabin walls which are oriented at least regionally parallel to the aisle and laterally delimit the cabin, - two outer passenger seat regions (10, 12) which are separated from one another by the aisle and in each case adjoin one of the two cabin walls, wherein the outer passenger seat regions (10, 12) have at least one row of seats with a respective inner first seat module which faces the aisle, a central second seat module adjacent to the first seat module, and an outer third seat module adjoining the respective cabin wall, wherein each of the first and third seat modules (16, 18, 20) has a seat and an ottoman paired with the seat or a foot rest at a distance from the respective seat, and the second seat module has a seat and a foot rest at a distance from this seat, wherein the third seat module is offset from the second seat module in the longitudinal direction (x) such that the seat of the third seat module adjoins the foot rest of the second seat module in the transverse direction, wherein the foot rest of the second seat module is a foldable foot rest which is configured to clear a floor located below the foot rest for reaching the seat of the second seat module if required, and wherein the seats of the seat modules (16, 18, 20) in each case have a seat direction, said seat directions running parallel to the longitudinal axis (x) and being co-directional. - an aisle which is arranged in a longitudinal direction (x) of the cabin, - two mutually spaced cabin walls which are oriented at least regionally parallel to the aisle and laterally delimit the cabin, - two outer passenger seat regions (10, 12) which are separated from one another by the aisle and in each case adjoin one of the two cabin walls, wherein the outer passenger seat regions (10, 12) have at least one row of seats with a respective inner first seat module which faces the aisle, a central second seat module adjacent to the first seat module, and an outer third seat module adjoining the respective cabin wall, wherein each of the first and third seat modules (16, 18, 20) has a seat and an ottoman paired with the seat or a foot rest at a distance from the respective seat, and the second seat module has a seat and a foot rest at a distance from this seat, wherein the third seat module is offset from the second seat module in the longitudinal direction (x) such that the seat of the third seat module adjoins the foot rest of the second seat module in the transverse direction, wherein the foot rest of the second seat module is a foldable foot rest which is configured to clear a floor located below the foot rest for reaching the seat of the second seat module if required, and wherein the seats of the seat modules (16, 18, 20) in each case have a seat direction, said seat directions running parallel to the longitudinal axis (x) and being co-directional.
Forming machine, in particular bending machine, comprising - a machine frame having a mounting wall, - at least one carriage unit that is arranged on the mounting wall and can optionally be set in various orientation positions in an orientation plane in order to move a forming tool, in particular a bending punch, that is fastened thereto so as to protrude from the front in a movement plane towards a predefined workpiece-contact point in a forming centre, characterised in that the assembly is implemented such that there is no guiding channel that is separate from the carriage unit in the movement plane of the forming tool for guiding the forming tool during the forming operation of the machine, and therefore the direction of the working movement path of the forming tool in the movement plane thereof is determined by the positioning and orientation of the carriage unit or of a tool holder that is optionally provided on said unit for holding the forming tool, and - a positioning-monitoring device for capturing deviations of the current actual working movement path of the forming tool from the predefined target working movement path in the forming centre. - a machine frame having a mounting wall, - at least one carriage unit that is arranged on the mounting wall and can optionally be set in various orientation positions in an orientation plane in order to move a forming tool, in particular a bending punch, that is fastened thereto so as to protrude from the front in a movement plane towards a predefined workpiece-contact point in a forming centre, - a positioning-monitoring device for capturing deviations of the current actual working movement path of the forming tool from the predefined target working movement path in the forming centre.
A titanium alloy comprising: 5 to 33 percent by weight copper; 1 to 8 percent by weight iron; and the balance being titanium; wherein impurities are present at: 0 to 0.25 percent by weight oxygen; 0 to 0.03 percent by weight nitrogen; 0 to 0.3 percent by weight in total of one or more other elements, wherein the or each other element is independently present at 0 to 0.1 percent by weight. 5 to 33 percent by weight copper; 1 to 8 percent by weight iron; and the balance being titanium; wherein impurities are present at: 0 to 0.25 percent by weight oxygen; 0 to 0.03 percent by weight nitrogen; 0 to 0.3 percent by weight in total of one or more other elements, wherein the or each other element is independently present at 0 to 0.1 percent by weight. 0 to 0.25 percent by weight oxygen; 0 to 0.03 percent by weight nitrogen; 0 to 0.3 percent by weight in total of one or more other elements, wherein the or each other element is independently present at 0 to 0.1 percent by weight.
A submerged arc welding method for a steel plate, wherein a first electrode at the head in a welding direction has a wire diameter of 3.9 to 4.1 mm, two electrodes (3, 4) are arranged on both sides holding a weld line therebetween at the tail end in the welding direction, characterized in that the method uses four or more electrodes, wherein a second electrode is located behind the first electrode in a welding direction, and the wire tip positions (33, 43) of the two tail-end electrodes (3, 4) on a surface of the steel plate are arranged on the same line perpendicular to the weld line, and a distance W (mm) between each of the wire tip positions (33, 43) and the weld line is 5 to 20 mm.