mhurhangee/ep-ind-claims huggingface dataset:
A vehicle lighting system comprising: a DMD (140, 1040) including micromirrors; a first light source (120, 1020) to generate a first beam profile illuminating a first set of micromirrors of the DMD (140, 1040); a second light source (122, 1022) to generate a second beam profile illuminating a second set of micromirrors of the DMD (140, 1040), wherein the first and second beam profiles partially overlap on micromirrors of the DMD (140, 1040); a third light source (124, 1024) to generate a third beam profile illuminating a third set of micromirrors of the DMD (140, 1040), wherein the second and third beam profiles partially overlap on micromirrors of the DMD (140, 1040); a concave mirror (150, 1050) to reflect light from the first light source (120, 1020) onto the DMD (140, 1040) and to reflect light from the third light source (124, 1024) onto the DMD (140, 1040); input electronics to sense a driving condition of the vehicle; and a processor to modulate the first light source (120, 1020), independently of the second and third light sources (122, 124, 1022, 1024), for adjusting power and brightness in response to the sensed driving condition; characterized in that the mirror (150, 1050) is adapted to reflect incident light in accordance with asymmetric F- (focal length-) numbers. a DMD (140, 1040) including micromirrors; a first light source (120, 1020) to generate a first beam profile illuminating a first set of micromirrors of the DMD (140, 1040); a second light source (122, 1022) to generate a second beam profile illuminating a second set of micromirrors of the DMD (140, 1040), wherein the first and second beam profiles partially overlap on micromirrors of the DMD (140, 1040); a third light source (124, 1024) to generate a third beam profile illuminating a third set of micromirrors of the DMD (140, 1040), wherein the second and third beam profiles partially overlap on micromirrors of the DMD (140, 1040); a concave mirror (150, 1050) to reflect light from the first light source (120, 1020) onto the DMD (140, 1040) and to reflect light from the third light source (124, 1024) onto the DMD (140, 1040); input electronics to sense a driving condition of the vehicle; and a processor to modulate the first light source (120, 1020), independently of the second and third light sources (122, 124, 1022, 1024), for adjusting power and brightness in response to the sensed driving condition; characterized in that the mirror (150, 1050) is adapted to reflect incident light in accordance with asymmetric F- (focal length-) numbers.
A display device with a heat exchange module, having: a casing with a sealed space formed inside, and a display unit arranged in the sealed space; the heat exchange module arranged within the casing, wherein the heat exchange module is provided with: first heat exchange holes positioned inside the sealed space, wherein a first circulation airflow is formed between the first heat exchange holes and the sealed space; and second heat exchange holes positioned outside the sealed space, wherein the second heat exchange holes communicate with the outside to form a second circulation airflow for performing heat exchange with the first circulation airflow, wherein, an accommodating space adjacent the sealed space is further formed inside the casing; the casing is provided with ventilation openings communicating with the outside pleading to the accommodating space; and the second heat exchange holes of the heat exchange module are disposed inside the accommodating space, and communicate with the outside through the ventilation openings. a casing with a sealed space formed inside, and a display unit arranged in the sealed space; the heat exchange module arranged within the casing, wherein the heat exchange module is provided with: first heat exchange holes positioned inside the sealed space, wherein a first circulation airflow is formed between the first heat exchange holes and the sealed space; and second heat exchange holes positioned outside the sealed space, wherein the second heat exchange holes communicate with the outside to form a second circulation airflow for performing heat exchange with the first circulation airflow, wherein, an accommodating space adjacent the sealed space is further formed inside the casing; the casing is provided with ventilation openings communicating with the outside pleading to the accommodating space; and the second heat exchange holes of the heat exchange module are disposed inside the accommodating space, and communicate with the outside through the ventilation openings. first heat exchange holes positioned inside the sealed space, wherein a first circulation airflow is formed between the first heat exchange holes and the sealed space; and second heat exchange holes positioned outside the sealed space, wherein the second heat exchange holes communicate with the outside to form a second circulation airflow for performing heat exchange with the first circulation airflow, wherein, an accommodating space adjacent the sealed space is further formed inside the casing; the casing is provided with ventilation openings communicating with the outside pleading to the accommodating space; and the second heat exchange holes of the heat exchange module are disposed inside the accommodating space, and communicate with the outside through the ventilation openings.
A binder resin for a nonaqueous secondary battery electrode comprising a polymer having a structural unit represented by the following Formula and at least one kind of structural units selected from the group consisting of a structural unit represented by the following Formula, a structural unit represented by the following Formula, and a structural unit derived from a compound represented by the following Formula; (in Formula, R 11 and R 12 each independently represent a hydrogen atom.) (in Formula, R 13 represents a hydrogen atom or a monovalent substituent, and R 14 represents a hydrogen atom or a methyl group.) (in Formula, R 15 represents a divalent substituent.) (in Formula, R 31 and R 32 each independently represent a divalent substituent, R 33 represents a monovalent substituent, and any of R 31 to R 33 has a vinyl group structure. s and t each independently represent 0 or 1.)
A piece of kitchen furniture having a carcass and an inner space at least partially surrounded by the carcass, wherein the inner space has a front-side access opening that is covered by a board-like closure element that is disposed in a frontal plane of the carcass and can be reversibly opened and closed by a user, the closure element comprises a board-like pivot part and a likewise board-like pulling part, a horizontal edge of the pivot part extends along a horizontal edge of the pulling part and the parts are connected to one another at these common edges such that the pivot part can be pivoted about a horizontal axis to open a first section of the inner space such that it contacts the front side of the pulling part, characterized in that a damper is provided to brake the pivot movement of the pivot part, and the carcass comprises a press to open fitting to release the pivot part and/or the pulling part from the closed position. the inner space has a front-side access opening that is covered by a board-like closure element that is disposed in a frontal plane of the carcass and can be reversibly opened and closed by a user, the closure element comprises a board-like pivot part and a likewise board-like pulling part, a horizontal edge of the pivot part extends along a horizontal edge of the pulling part and the parts are connected to one another at these common edges such that the pivot part can be pivoted about a horizontal axis to open a first section of the inner space such that it contacts the front side of the pulling part, characterized in that a damper is provided to brake the pivot movement of the pivot part, and the carcass comprises a press to open fitting to release the pivot part and/or the pulling part from the closed position.
A breaking device comprising: an interrupting section including a plurality of interrupting units (2a, 2b, 2c, 2d), in each of which a main interrupter (21, 22, 23, 24), a voltage divider circuit (31, 32, 33, 34), and a first arrester (41, 42, 43, 44) are connected in parallel to each other, a plurality of the main interrupters (21, 22, 23, 24) being connected in series; and a resonant circuit section including a reactor, a capacitor, and a closing switch (51, 52, 53, 54), the resonant circuit section being connected in parallel to the interrupting section, characterized in that the breaking device further comprises a second arrester connected in parallel to the interrupting section via the reactor, and clamping voltages of the first arresters (41, 42, 43, 44) are equal between the plurality of interrupting units (2a, 2b, 2c, 2d), and are in a range of 1.1 to 1.6 times a value obtained by dividing a clamping voltage of the second arrester by the number of the interrupting units (2a, 2b, 2c, 2d) connected in series in the interrupting section. an interrupting section including a plurality of interrupting units (2a, 2b, 2c, 2d), in each of which a main interrupter (21, 22, 23, 24), a voltage divider circuit (31, 32, 33, 34), and a first arrester (41, 42, 43, 44) are connected in parallel to each other, a plurality of the main interrupters (21, 22, 23, 24) being connected in series; and a resonant circuit section including a reactor, a capacitor, and a closing switch (51, 52, 53, 54), the resonant circuit section being connected in parallel to the interrupting section, characterized in that the breaking device further comprises a second arrester connected in parallel to the interrupting section via the reactor, and clamping voltages of the first arresters (41, 42, 43, 44) are equal between the plurality of interrupting units (2a, 2b, 2c, 2d), and are in a range of 1.1 to 1.6 times a value obtained by dividing a clamping voltage of the second arrester by the number of the interrupting units (2a, 2b, 2c, 2d) connected in series in the interrupting section.
A method for leak detection on at least one flexible test piece in a film chamber, comprising the following steps: introducing the at least one flexible test piece into a film chamber with at least one film (14, 16), lowering the pressure in the film chamber outside the at least one flexible test piece, and detecting a leak in the at least one flexible test piece by monitoring the spatial change of the at least one film (14, 16) of the film chamber, transferring the outer contour of the at least one flexible test piece to at least one portion of the at least one film (14, 16)by lowering the pressure in the film chamber, capturing said contour of the at least one film (14, 16) by means of an image capturing device which is adapted to capture images of the film contour, and comparing the captured images of the contour with reference images of said contour in the case of tight flexible test pieces, characterized in that the portion of the at least one film (14, 15) captured by the image capturing device is provided with a grid, which may be dots arranged in a pattern, the position of which is monitored and evaluated. introducing the at least one flexible test piece into a film chamber with at least one film (14, 16), lowering the pressure in the film chamber outside the at least one flexible test piece, and detecting a leak in the at least one flexible test piece by monitoring the spatial change of the at least one film (14, 16) of the film chamber, transferring the outer contour of the at least one flexible test piece to at least one portion of the at least one film (14, 16)by lowering the pressure in the film chamber, capturing said contour of the at least one film (14, 16) by means of an image capturing device which is adapted to capture images of the film contour, and comparing the captured images of the contour with reference images of said contour in the case of tight flexible test pieces, characterized in that the portion of the at least one film (14, 15) captured by the image capturing device is provided with a grid, which may be dots arranged in a pattern, the position of which is monitored and evaluated.
A diagnostic imaging system comprising: a first controller (20, 24, 30, 34) that is configured to detect any unsafe or dangerous conditions in a diagnostic scanner and to generate safety/emergency data indicative of the unsafe or dangerous conditions; a communication unit (48, 50-56, 60) that is configured to generate a safety/emergency signal from the safety/emergency data using a digital protocol and to communicate the safety/emergency over a local digital network; characterized in that the communication unit is further configured to preempt normal packet delivery over the local digital network and to insert the safety/emergency signal onto the local digital network wherein the digital protocol defines protocol for packet delivery between serial devices including three levels of data transfer: a character level, a symbol level, and a packet level and the communication unit (48, 50-56, 60) is configured to generate the safety/emergency signal using the digital protocol to insert a custom symbol indicative of the safety/emergency data using otherwise unused symbol codes and the custom symbol pre-empts any packet transfer that is in progress. a first controller (20, 24, 30, 34) that is configured to detect any unsafe or dangerous conditions in a diagnostic scanner and to generate safety/emergency data indicative of the unsafe or dangerous conditions; a communication unit (48, 50-56, 60) that is configured to generate a safety/emergency signal from the safety/emergency data using a digital protocol and to communicate the safety/emergency over a local digital network; characterized in that the communication unit is further configured to preempt normal packet delivery over the local digital network and to insert the safety/emergency signal onto the local digital network wherein the digital protocol defines protocol for packet delivery between serial devices including three levels of data transfer: a character level, a symbol level, and a packet level and the communication unit (48, 50-56, 60) is configured to generate the safety/emergency signal using the digital protocol to insert a custom symbol indicative of the safety/emergency data using otherwise unused symbol codes and the custom symbol pre-empts any packet transfer that is in progress.
A mower having a plurality of rotary cutters for cutting a crop and a swathing unit for forming a cut crop into a swath, wherein the swathing unit includes an auger and a housing that extends around at least part of the auger and provides a swathing aperture through which cut crop material is ejected to form a swath; characterised in that the auger is configured such that a front part of auger rotates downwards and the cut crop passes under the rotary axis of the auger, and the housing includes at least one guide plate located beneath and behind the auger that holds the cut crop in contact with the auger, wherein said at least one guide plate can be adjusted to adjust the width of the swathing aperture.
A method (200, 400, 600) overlaying a three-dimensional image of a tissue and an image of the tissue from an imaging transducer, having a field of view, the method comprising: co-registering a first co-ordinate space of the three-dimensional image with a second co-ordinate space of the field of view of the image from the imaging transducer; determining pixel dimensions of the field of view in the second co-ordinate space; scaling the three-dimensional image in the first co-ordinate space; transforming position and orientation of the three-dimensional image of the tissue in the first co-ordinate space to match position and orientation of the field of view in the second co-ordinate space; displaying an overlaid image comprising the three-dimensional image and the field of view of the imaging transducer; characterized in that the step of determining pixel dimensions of the field of view in the second co-ordinate space includes: determining pixel coordinates of points of interest on an upper boundary of the field of view; and determining pixel width and height based on geometry of the upper boundary of the field of view; and in that the step of scaling further comprises matching the pixel dimensions of the three-dimensional image in the first co-ordinate space with the pixel dimensions of the field of view in the second co-ordinate space. co-registering a first co-ordinate space of the three-dimensional image with a second co-ordinate space of the field of view of the image from the imaging transducer; determining pixel dimensions of the field of view in the second co-ordinate space; scaling the three-dimensional image in the first co-ordinate space; transforming position and orientation of the three-dimensional image of the tissue in the first co-ordinate space to match position and orientation of the field of view in the second co-ordinate space; displaying an overlaid image comprising the three-dimensional image and the field of view of the imaging transducer; characterized in that the step of determining pixel dimensions of the field of view in the second co-ordinate space includes: determining pixel coordinates of points of interest on an upper boundary of the field of view; and determining pixel width and height based on geometry of the upper boundary of the field of view; and in that the step of scaling further comprises matching the pixel dimensions of the three-dimensional image in the first co-ordinate space with the pixel dimensions of the field of view in the second co-ordinate space. determining pixel coordinates of points of interest on an upper boundary of the field of view; and determining pixel width and height based on geometry of the upper boundary of the field of view; and in that the step of scaling further comprises matching the pixel dimensions of the three-dimensional image in the first co-ordinate space with the pixel dimensions of the field of view in the second co-ordinate space.
A mill bit for the manufacture of a wind turbine blade, comprising: an elongate base body having a proximal end, a distal end, an outer surface, and an internal bore that defines an inner surface; one or more flutes formed on the outer surface that defines one or more teeth; and an abrasive coating on at least a portion of the outer surface, wherein the one or more flutes are free of the abrasive coating, and wherein said inner surface includes an abrasive coating. an elongate base body having a proximal end, a distal end, an outer surface, and an internal bore that defines an inner surface; one or more flutes formed on the outer surface that defines one or more teeth; and an abrasive coating on at least a portion of the outer surface, wherein the one or more flutes are free of the abrasive coating, and wherein said inner surface includes an abrasive coating.
A brush holder (10, 30) for accommodating a carbon brush, comprising a guide housing for accommodating and arranging the carbon brush in a longitudinally displaceable manner, wherein the guide housing has guide walls (13, 14) for forming a sliding contact with the carbon brush, and at least one guide wall has a protrusion (22, 32), which is connected to the guide wall and protrudes into an accommodating chamber defined by the guide housing, such that abutment against a side surface of the carbon brush causes a sliding motion of the carbon brush in the guide housing to be blocked, characterized in that the protrusion is formed on an elastically resilient carrier element (21, 31), which is arranged in a window opening of the guide wall, spans the window opening and is connected to the guide wall at each of its two axial ends.
A method (1100, 1200) for improving backhaul traffic reliability in unlicensed spectrum bands by using cross-protocol channel sensing and reservation for wireless backhaul communications between a first base station and a second base station of a wireless communications network, the method comprising the steps of: scanning (1105, 1205) channel quality of a plurality of carriers of an unlicensed spectrum band; selecting (1110, 1210), based on the scanned channel quality of the plurality of carriers, a first carrier for use in a wireless backhaul communications link between the first base station and the second base station; transmitting, by the first base station, a first reservation frame on the first carrier; and transmitting (1115, 1225), from the first base station to the second base station over the first carrier, a first set of backhaul data in a first backhaul traffic frame; and further comprising: detecting interference on the first carrier; and proceeding with transmitting the first backhaul traffic frame over the first carrier based on the detected interference level being below a predetermined threshold. detecting interference on the first carrier; and proceeding with transmitting the first backhaul traffic frame over the first carrier based on the detected interference level being below a predetermined threshold.
A fluid ejection device, comprising: a plurality of address lines (66, 68, 70); a fire line for communicating a fire signal; and a plurality of nozzle circuits coupled to the fire line and the plurality of address lines (66, 68, 70), each nozzle circuit configured, when enabled, to eject fluid via a different one of a plurality of nozzles in response to the fire signal, the plurality of nozzle circuits comprising pairs of nozzle circuits; characterized in that a subset of three or four of the plurality of address lines (66, 68, 70) is coupled to each pair of the plurality of nozzle circuits so that, for each given subset of address lines (66, 68, 70) coupled to one or more of the pairs of the plurality of nozzle circuits, simultaneous activation of every address line (66, 68, 70) of that subset simultaneously enables each nozzle circuit in the pair or pairs of nozzle circuits coupled to that subset and none of the other nozzle circuits of the plurality of nozzle circuits. a plurality of address lines (66, 68, 70); a fire line for communicating a fire signal; and a plurality of nozzle circuits coupled to the fire line and the plurality of address lines (66, 68, 70), each nozzle circuit configured, when enabled, to eject fluid via a different one of a plurality of nozzles in response to the fire signal, the plurality of nozzle circuits comprising pairs of nozzle circuits; characterized in that a subset of three or four of the plurality of address lines (66, 68, 70) is coupled to each pair of the plurality of nozzle circuits so that, for each given subset of address lines (66, 68, 70) coupled to one or more of the pairs of the plurality of nozzle circuits, simultaneous activation of every address line (66, 68, 70) of that subset simultaneously enables each nozzle circuit in the pair or pairs of nozzle circuits coupled to that subset and none of the other nozzle circuits of the plurality of nozzle circuits.
Use of a sealing element for structural waterproofing, wherein the sealing element is an adhesive planar structure which is sticky on both sides and the sealing element comprises a pressure-sensitive adhesive and a water-swellable component and the proportion of the water-swellable component in the sealing element is between 2 wt.% and 50 wt.% and the adhesive planar structure is a polymer comprising acrylates, tackifiers and the water-swellable component.