mhurhangee/ep-ind-claims huggingface dataset:
A method for increasing the pixel count delivered from a plurality of light detectors when scanning an object, comprising: positioning a mask, having a plurality of two dimensional Walsh-Hadamard filter patterns, in front of a plurality of light detectors to control the passage of light through the mask filter patterns to the light detectors, the plurality of light detectors having a planar surface and the mask and the plurality of light detectors being spaced adjacent to each other in parallel; positioning a lens assembly in front of the mask to project an image through the mask filter patterns on to the plurality of light detectors; moving the mask, plurality of light detectors, or the image in or parallel to a plane defined by the planar surface of the plurality of light detectors; and measuring the filtered image projected through the mask with the plurality of light detectors by sequentially storing a set of data representing the measured filtered image falling on the plurality of light detectors, and subsequently retrieving a representation of the projected image from the stored set of data by performing an inverse Walsh-Hadamard transform on the stored set of data. positioning a mask, having a plurality of two dimensional Walsh-Hadamard filter patterns, in front of a plurality of light detectors to control the passage of light through the mask filter patterns to the light detectors, the plurality of light detectors having a planar surface and the mask and the plurality of light detectors being spaced adjacent to each other in parallel; positioning a lens assembly in front of the mask to project an image through the mask filter patterns on to the plurality of light detectors; moving the mask, plurality of light detectors, or the image in or parallel to a plane defined by the planar surface of the plurality of light detectors; and measuring the filtered image projected through the mask with the plurality of light detectors by sequentially storing a set of data representing the measured filtered image falling on the plurality of light detectors, and subsequently retrieving a representation of the projected image from the stored set of data by performing an inverse Walsh-Hadamard transform on the stored set of data.
Evisceration tool, designed and configured for removing internal organs and in particular an intestine pack from the body of slaughtered poultry, comprising a spoon-shaped basic body, wherein the basic body has a spoon base and a spoon edge which extends around at least part of the spoon base to form a spoon bowl, wherein the basic body is made at least partly of a resilient material, characterized in that the resilient material is on the one hand flexible enough to adapt to a contour of the body during removal of the internal organs and on the other hand stiff enough to remove the internal organs from the body.
Axial piston machine having a cylinder body, in which multiple cylinders are formed, and having pistons which are guided in movable fashion in the cylinders, wherein the pistons are connected to a swashplate which bears rotatably against a swashplate base, and wherein a fluid flow into and out of the cylinders is controlled by means of inlet and outlet valves, characterized by varying pitches between the connections of the pistons to the swashplate, and/or by opening times for the inlet and/or outlet valves which vary on a cylinder-selective basis.
A disposable fluidic cartridge having a recess (122a-b) therein and a mechanically-actuated mechanism disposed within the recess for effecting an operation of the fluidic cartridge, wherein the mechanically-actuated mechanism is a collapsible blister configured to expel its contents into a fluid pathway within the fluidic cartridge as it is collapsed; and further comprising: a machine-readable identification code on a breakable label covering at least a portion of the recess such that the portion of the breakable label covering the recess may be broken upon insertion of a mechanical actuator into the recess to actuate the mechanically-actuated mechanism, thereby rendering the identification code unreadable and preventing reuse of the cartridge.
A process of producing a composition comprising at least one lipid and a mixture of two different proteins, of which at least one is a casein and at least one is an anti-coagulating protein, comprising the steps of: a) heat-sterilising a first liquid component which comprises said casein in an amount of at least 85wt% of the total protein content of the first component, b) heat-sterilising a second liquid component comprising said anti-coagulating protein, wherein said anti-coagulating protein is selected from vegetal proteins; and c) mixing said first component with said second component to obtain a mixture of said proteins, wherein said first and/or said second liquid component comprises said lipid, preferably at least said second liquid component comprises said lipid. a) heat-sterilising a first liquid component which comprises said casein in an amount of at least 85wt% of the total protein content of the first component, b) heat-sterilising a second liquid component comprising said anti-coagulating protein, wherein said anti-coagulating protein is selected from vegetal proteins; and c) mixing said first component with said second component to obtain a mixture of said proteins, wherein said first and/or said second liquid component comprises said lipid, preferably at least said second liquid component comprises said lipid.
A method comprising: receiving (2101, 2301), by a wireless device, at least one configuration parameter that indicates at least one reference signal, RS; determining a beam failure of a secondary cell; determining that a beam failure recovery, BFR, procedure for the secondary cell is unsuccessful; and sending (2109, 2312), via a physical uplink control channel, PUCCH, at least one message comprising: at least one field associated with the at least one RS, and at least one measurement field comprising a first value that indicates the unsuccessful BFR procedure for the secondary cell. receiving (2101, 2301), by a wireless device, at least one configuration parameter that indicates at least one reference signal, RS; determining a beam failure of a secondary cell; determining that a beam failure recovery, BFR, procedure for the secondary cell is unsuccessful; and sending (2109, 2312), via a physical uplink control channel, PUCCH, at least one message comprising: at least one field associated with the at least one RS, and at least one measurement field comprising a first value that indicates the unsuccessful BFR procedure for the secondary cell. at least one field associated with the at least one RS, and at least one measurement field comprising a first value that indicates the unsuccessful BFR procedure for the secondary cell.
A nacelle for a wind turbine comprising an electrical generator having a stator and a rotor with an air gap between the stator and the rotor, the stator including an annular support plate, a cooling circuit including at least a first inlet portion for channeling a fluid cooling medium to the air gap between the stator and the rotor, wherein the first inlet portion of the cooling circuit comprises at least an inlet hole on the annular support plate for letting at least a portion of the cooling medium flow towards the air gap the stator includes a circumferentially outer structure attached to the annular support plate and the cooling circuit includes at least a second outlet portion for channeling an heated fluid medium from the air gap between the stator and the rotor, the second outlet portion comprising at least an outlet hole on the circumferentially outer structure for letting the heated fluid medium flow from the air gap characterized in that the circumferentially outer structure has a fork shape with two slanted portions (24, 26) departing from a circumferential border of the annular support plate, the outlet hole being provided on one of the slanted portions. an electrical generator having a stator and a rotor with an air gap between the stator and the rotor, the stator including an annular support plate, a cooling circuit including at least a first inlet portion for channeling a fluid cooling medium to the air gap between the stator and the rotor, wherein the first inlet portion of the cooling circuit comprises at least an inlet hole on the annular support plate for letting at least a portion of the cooling medium flow towards the air gap the stator includes a circumferentially outer structure attached to the annular support plate and the cooling circuit includes at least a second outlet portion for channeling an heated fluid medium from the air gap between the stator and the rotor, the second outlet portion comprising at least an outlet hole on the circumferentially outer structure for letting the heated fluid medium flow from the air gap
A projection device, comprising at least one projection module, at least one reflecting element, and at least one adjusting structure, the at least one projection module having at least one optical axis, the at least one projection module being adapted to provide a projection beam, wherein the projection beam is transmitted along a light transmission path to a projection target to form a projection image; the at least one reflecting element being disposed between the at least one projection module and the projection target and located on the optical axis and having a reflecting surface, wherein the reflecting surface is adapted to reflect the projection beam to the projection target; the at least one adjusting structure being connected to the projection module and the reflecting element, characterized in that the adjusting structure comprises a base and two first adjusting elements, each of the first adjusting elements is screwed to the base and abuts against the projection module, a connecting line of the two first adjusting elements is parallel to the optical axis, wherein each of the first adjusting elements is adapted to rotate to move up and down relative to the base, so as to drive the projection module and the reflecting element to rotate along a second axis such that the projection image rotates, wherein the second axis and the optical axis are perpendicular to each other. the at least one projection module having at least one optical axis, the at least one projection module being adapted to provide a projection beam, wherein the projection beam is transmitted along a light transmission path to a projection target to form a projection image; the at least one reflecting element being disposed between the at least one projection module and the projection target and located on the optical axis and having a reflecting surface, wherein the reflecting surface is adapted to reflect the projection beam to the projection target; the at least one adjusting structure being connected to the projection module and the reflecting element, characterized in that the adjusting structure comprises a base and two first adjusting elements, each of the first adjusting elements is screwed to the base and abuts against the projection module, a connecting line of the two first adjusting elements is parallel to the optical axis, wherein each of the first adjusting elements is adapted to rotate to move up and down relative to the base, so as to drive the projection module and the reflecting element to rotate along a second axis such that the projection image rotates, wherein the second axis and the optical axis are perpendicular to each other.
A dust cup assembly, comprising: a cup casing; a device housing configured to be the shape of a tube, disposed in the cup casing, and defining a dust removal chamber together with the cup casing; a first cyclone separating member disposed in the dust removal chamber and surrounding the device housing along a circumferential direction of the device housing; and a negative pressure device disposed within the device housing, such that dusty air enters the dust removal chamber for dust and air separation through the first cyclone separating member, wherein in an axial direction of the device housing, the negative pressure device is at least partially located at a side of the first cyclone separating member, wherein the device housing comprises a first tube segment, a transition tube segment and a second tube segment which are sequentially connected along the axial direction of the device housing, characterized in that a maximum diameter of the first tube segment is smaller than a minimum diameter of the second tube segment; in a radial direction of the device housing, the first cyclone separating member is opposite to the first tube segment or opposite to the first tube segment and the transition tube segment, and the negative pressure device is opposite to the second tube segment or opposite to the second tube segment and the transition tube segment, wherein the first tube segment and the second tube segment both are configured as straight tube segments, and the transition tube segment is configured as a divergent tube segment. a cup casing; a device housing configured to be the shape of a tube, disposed in the cup casing, and defining a dust removal chamber together with the cup casing; a first cyclone separating member disposed in the dust removal chamber and surrounding the device housing along a circumferential direction of the device housing; and a negative pressure device disposed within the device housing, such that dusty air enters the dust removal chamber for dust and air separation through the first cyclone separating member, wherein in an axial direction of the device housing, the negative pressure device is at least partially located at a side of the first cyclone separating member, wherein the device housing comprises a first tube segment, a transition tube segment and a second tube segment which are sequentially connected along the axial direction of the device housing, characterized in that a maximum diameter of the first tube segment is smaller than a minimum diameter of the second tube segment; in a radial direction of the device housing, the first cyclone separating member is opposite to the first tube segment or opposite to the first tube segment and the transition tube segment, and the negative pressure device is opposite to the second tube segment or opposite to the second tube segment and the transition tube segment, wherein the first tube segment and the second tube segment both are configured as straight tube segments, and the transition tube segment is configured as a divergent tube segment.
Apparatus for detecting at least one substance contained in a fluid flow, comprising at least one field effect transistor as a measuring sensor and at least one field effect transistor which acts as a reference element, wherein the field effect transistors (1, 3) each have at least a source electrode, a drain electrode and a gate electrode, wherein the gate electrode of the field effect transistor acting as the measuring sensor is sensitive to the at least one substance to be detected and the gate electrode of the field effect transistor acting as the reference element is essentially insensitive to the at least one substance to be detected, wherein the source electrode of one of the field effect transistors (1, 3) and the drain electrode of the other field effect transistor (1, 3) are connected to one another and to a signal line, characterized in that the gate electrode of the field effect transistor acting as the reference element is provided with a passivation layer, wherein the passivation layer is formed of a ceramic, a metal, an organic polymer or mixtures of said materials or has a non-porous gate metallization.
Connecting element for contacting a shielding of a power cable, said connecting element comprising: an electrically conductive contact element for electrically contacting said shielding, wherein said contact element comprises a plurality of contact protrusions which in a mounted state protrude towards the shielding, said contact protrusions being arranged in a plurality of rows which have a distance from each other that extends, in a mounted state, circumferentially around said cable and a length that extends along said cable, said rows being arranged that they form an angle (α) unequal zero with a longitudinal axis of the cable, characterized in that said angle (α) is smaller than the arctangent of the ratio between the distance of two rows and the length of said rows. an electrically conductive contact element for electrically contacting said shielding, wherein said contact element comprises a plurality of contact protrusions which in a mounted state protrude towards the shielding, said contact protrusions being arranged in a plurality of rows which have a distance from each other that extends, in a mounted state, circumferentially around said cable and a length that extends along said cable, said rows being arranged that they form an angle (α) unequal zero with a longitudinal axis of the cable, characterized in that said angle (α) is smaller than the arctangent of the ratio between the distance of two rows and the length of said rows.
A virtual view rendering method, in which an input video, with at least one text, is rendered in accordance with a depth data to render a virtual view, characterized in that said method comprises the steps of; - determining a format of the input video in terms of view number; - detecting at least one text on said input video by performing a text detection algorithm in accordance with determined format of the input video; wherein i. if detected video format of said input video is a mono view, the step of text detection comprises executing a detection algorithm to determine the locations of possible text regions, ii. if detected video format of said input video is a stereo view or a multiple view, a step of render error analysis for detecting possible text regions is performed before the step of text detection and the step of render error analysis comprises comparing two frames from different views of stereo or multiple view video to detect text and the step of text detection comprises performing a detection algorithm for detecting the text of a stereo or a multiple view, - generating a rendered view by performing depth data post processing in which for each text region, all characters of detected text are warped with same depth distribution in accordance with said depth data. - determining a format of the input video in terms of view number; - detecting at least one text on said input video by performing a text detection algorithm in accordance with determined format of the input video; wherein i. if detected video format of said input video is a mono view, the step of text detection comprises executing a detection algorithm to determine the locations of possible text regions, ii. if detected video format of said input video is a stereo view or a multiple view, a step of render error analysis for detecting possible text regions is performed before the step of text detection and the step of render error analysis comprises comparing two frames from different views of stereo or multiple view video to detect text and the step of text detection comprises performing a detection algorithm for detecting the text of a stereo or a multiple view, i. if detected video format of said input video is a mono view, the step of text detection comprises executing a detection algorithm to determine the locations of possible text regions, ii. if detected video format of said input video is a stereo view or a multiple view, a step of render error analysis for detecting possible text regions is performed before the step of text detection and the step of render error analysis comprises comparing two frames from different views of stereo or multiple view video to detect text and the step of text detection comprises performing a detection algorithm for detecting the text of a stereo or a multiple view, - generating a rendered view by performing depth data post processing in which for each text region, all characters of detected text are warped with same depth distribution in accordance with said depth data.
A palladium complex of formula: wherein: R 18 and R 19 are independently selected from the group consisting of -Me, -Et, - n Pr, - i Pr, - n Bu, - i Bu, cyclohexyl and cycloheptyl; R 12 is an organic group having 1-20 carbon atoms; R 20, R 21, R 22, R 23 and R 24 are independently -H or organic groups having 1-20 carbon atoms; or one or both pairs selected from R 20 /R 21 or R 22 /R 23 may independently form a ring structure with the atoms to which they are attached; m is 0, 1, 2, 3, 4 or 5; and X is a coordinating anionic ligand. R 18 and R 19 are independently selected from the group consisting of -Me, -Et, - n Pr, - i Pr, - n Bu, - i Bu, cyclohexyl and cycloheptyl; R 12 is an organic group having 1-20 carbon atoms; R 20, R 21, R 22, R 23 and R 24 are independently -H or organic groups having 1-20 carbon atoms; or one or both pairs selected from R 20 /R 21 or R 22 /R 23 may independently form a ring structure with the atoms to which they are attached; m is 0, 1, 2, 3, 4 or 5; and X is a coordinating anionic ligand.
A system for collecting fluid in a wellbore comprising: an outer flexible skin having an outer diameter; a plurality of rings (40, 42) disposed around the outer diameter; a plurality of drains (132, 134) coupled to the outer flexible skin and configured to move towards and abut a wall of the wellbore when the outer flexible skin expands; and a mandrel positioned within the outer flexible skin. an outer flexible skin having an outer diameter; a plurality of rings (40, 42) disposed around the outer diameter; a plurality of drains (132, 134) coupled to the outer flexible skin and configured to move towards and abut a wall of the wellbore when the outer flexible skin expands; and a mandrel positioned within the outer flexible skin.
Electrical contact arrangement comprising • a housing having a cutout that penetrates the housing in the axial direction, • a bushing inserted into the cutout, said bushing o having an axial sealing surface in the interior of the housing and o having two ledges extending perpendicularly to the axial direction, preferably in grooves, outside the housing, • a contact pin which is arranged fixedly in the bushing and projects through the bushing, • a fastening element which is configured to rest on the housing and to be introduced under the ledges, characterized in that • wedge-shaped surfaces between the bushing and the fastening element and/or between the housing and the fastening element, such that, as a result of the fastening element being introduced under the ledges, the sealing surface is able to be drawn against the housing from the inside. • a housing having a cutout that penetrates the housing in the axial direction, • a bushing inserted into the cutout, said bushing o having an axial sealing surface in the interior of the housing and o having two ledges extending perpendicularly to the axial direction, preferably in grooves, outside the housing, o having an axial sealing surface in the interior of the housing and o having two ledges extending perpendicularly to the axial direction, preferably in grooves, outside the housing, • a contact pin which is arranged fixedly in the bushing and projects through the bushing, • a fastening element which is configured to rest on the housing and to be introduced under the ledges, characterized in that • wedge-shaped surfaces between the bushing and the fastening element and/or between the housing and the fastening element, such that, as a result of the fastening element being introduced under the ledges, the sealing surface is able to be drawn against the housing from the inside.