mhurhangee/patent-ind-claim-en huggingface dataset:
A method for broadcasting a data stream in at least one broadcast network, characterised in that it comprises inserting , into said data stream, at least one identifier allowing to uniquely identify at least one broadcast area of the broadcast network used to broadcast said data stream, said at least one identifier being transmitted in signalling information of an application intended to be executed by at least one receiver of said data stream. characterised in that it comprises inserting , into said data stream, at least one identifier allowing to uniquely identify at least one broadcast area of the broadcast network used to broadcast said data stream, said at least one identifier being transmitted in signalling information of an application intended to be executed by at least one receiver of said data stream.
Method for tracking vehicles which are liable for a toll in a toll system, comprising the steps: - providing at least two stationary control apparatuses on the roadside for detecting at least one numberplate of a vehicle which is liable for a toll, - detecting a numberplate of a vehicle which is liable for a toll by a first one of the control apparatuses , - transmitting the numberplate to a central data processing apparatus , - determining the current vehicle position of the vehicle which is liable for a toll on the basis of the position of the first control apparatus , - providing at least two mobile display devices for displaying numberplates and current vehicle positions of detected vehicles which are liable for a toll, - transmitting the current position of each of the mobile display devices to the central data processing apparatus , - determining in the central data processing apparatus precisely one closest mobile display device which is located at a smaller distance from the current vehicle position than all other mobile display devices , on the basis of the current vehicle position of the vehicle which is liable for a toll and the current positions of all mobile display devices , - transmitting the numberplate and the current vehicle position to the precisely one closest mobile display device by the central data processing apparatus , - representing the numberplate and the current vehicle position of the vehicle which is liable for a toll on the precisely one closest mobile display device . - providing at least two stationary control apparatuses on the roadside for detecting at least one numberplate of a vehicle which is liable for a toll, - detecting a numberplate of a vehicle which is liable for a toll by a first one of the control apparatuses , - transmitting the numberplate to a central data processing apparatus , - determining the current vehicle position of the vehicle which is liable for a toll on the basis of the position of the first control apparatus , - providing at least two mobile display devices for displaying numberplates and current vehicle positions of detected vehicles which are liable for a toll, - transmitting the current position of each of the mobile display devices to the central data processing apparatus , - determining in the central data processing apparatus precisely one closest mobile display device which is located at a smaller distance from the current vehicle position than all other mobile display devices , on the basis of the current vehicle position of the vehicle which is liable for a toll and the current positions of all mobile display devices , - transmitting the numberplate and the current vehicle position to the precisely one closest mobile display device by the central data processing apparatus , - representing the numberplate and the current vehicle position of the vehicle which is liable for a toll on the precisely one closest mobile display device .
An ex vivo method for obtaining a population of stem and progenitor cells (SPC) with enhanced engraftment characteristics by activation of TNF family receptors, wherein said cells are suitable for being transplanted into a recipient in need of SPC transplantation, comprising: contacting ex vivo a biological sample obtained from a donor, said biological sample comprising a population of SPC, with at least one member of the TNF superfamily or any fragment or derivative thereof which retains the activity of the complete protein, wherein said enhanced engraftment characteristics comprise increasing myeloid, lymphoid, thrombocytic or erythroid reconstitution or activity, wherein the at least one member of the TNF super family is selected from the group consisting of Fas ligand (FasL) and tumor necrosis factor α (TNF-α), and wherein said biological sample is umbilical cord blood (UCB) and said contacting is for between 18 hours and 48 hours; or wherein said biological sample is mobilized peripheral blood (mPB) and said contacting is for between 3 hours and 18 hours. contacting ex vivo a biological sample obtained from a donor, said biological sample comprising a population of SPC, with at least one member of the TNF superfamily or any fragment or derivative thereof which retains the activity of the complete protein, wherein said enhanced engraftment characteristics comprise increasing myeloid, lymphoid, thrombocytic or erythroid reconstitution or activity, wherein the at least one member of the TNF super family is selected from the group consisting of Fas ligand (FasL) and tumor necrosis factor α (TNF-α), and wherein said biological sample is umbilical cord blood (UCB) and said contacting is for between 18 hours and 48 hours; or wherein said biological sample is mobilized peripheral blood (mPB) and said contacting is for between 3 hours and 18 hours.
An apparatus for spraying flowable media and in particular plant protection agents (PSM) onto plants, comprising at least a first spray device and a second spray device , wherein each of the the spray devices has a tubular conduit device that extends in a predetermined longitudinal direction (L) and is suitable and intended for conducting a flowable plant protection agent, and wherein each of the spray units has at least one spray head that is in flow communication with the conduit device associated therewith, wherein the spray devices are provided in a pivotable manner in relation to a predetermined pivot axis (S) on a carrier , wherein the pivot axis (S) is perpendicular to the longitudinal direction (L) of the conduit device and the apparatus has an adjustment unit that allows both the first spray device and the second spray device to be pivoted between a working position and an idle position, wherein the adjustment device is movable relative to the carrier , characterised in that in the working position a pivoting movement of the first spray device with respect to the pivot axis (S) in at least one pivoting direction is not coupled to the pivoting movement of the second spray device with respect to the pivot axis (S), wherein a projection is arranged on at least one spray device which contacts the adjustment devcie as a function of a position of the adjustment device. the spray devices are provided in a pivotable manner in relation to a predetermined pivot axis (S) on a carrier , wherein the pivot axis (S) is perpendicular to the longitudinal direction (L) of the conduit device and the apparatus has an adjustment unit that allows both the first spray device and the second spray device to be pivoted between a working position and an idle position, wherein the adjustment device is movable relative to the carrier , characterised in that in the working position a pivoting movement of the first spray device with respect to the pivot axis (S) in at least one pivoting direction is not coupled to the pivoting movement of the second spray device with respect to the pivot axis (S), wherein a projection is arranged on at least one spray device which contacts the adjustment devcie as a function of a position of the adjustment device.
An acoustic pressure shock wave applicator for treatment of a protruding appendage of a human or animal body comprising: at least one shock wave generator at a first focal point (F1) of the shock wave applicator and supported within an interior cavity defined by walls of a reflector , wherein the reflector opens to an aperture for passage of acoustic pressure shock waves generated at the at least one shock wave generator ; and a membrane covering the aperture and enclosing fluid in the interior cavity of the reflector , characterized in that the membrane includes a pre-formed concave space having a predetermined size and shape extending inward toward the interior cavity of the reflector and configured to fit a protruding appendage in the pre-formed concave space and wherein a second focal point (F2) of the shock wave applicator is located within the pre-formed concave space to provide a shock wave focal volume overlapping the pre-formed concave space. at least one shock wave generator at a first focal point (F1) of the shock wave applicator and supported within an interior cavity defined by walls of a reflector , wherein the reflector opens to an aperture for passage of acoustic pressure shock waves generated at the at least one shock wave generator ; and a membrane covering the aperture and enclosing fluid in the interior cavity of the reflector , characterized in that the membrane includes a pre-formed concave space having a predetermined size and shape extending inward toward the interior cavity of the reflector and configured to fit a protruding appendage in the pre-formed concave space and wherein a second focal point (F2) of the shock wave applicator is located within the pre-formed concave space to provide a shock wave focal volume overlapping the pre-formed concave space.
An in-cell touch panel comprising a top substrate and a bottom substrate disposed opposite to each other, a plurality of self-capacitance electrodes disposed on a same layer and independent from each other, a touch sensing chip , a black matrix layer , a color filter layer and a plurality of wires for connecting the self-capacitance electrodes to the touch sensing chip , wherein the self-capacitance electrodes constitute a common electrode layer and the wires and the self-capacitance electrodes are disposed on different layers; the touch sensing chip is configured to apply common electrode signals to self-capacitance electrodes in a display time period and determine touch positions by detecting capacitance value variation of self-capacitance electrodes in a touch time period; characterized in that : the self-capacitance electrodes and the wires are both disposed on a side of the top substrate that faces the bottom substrate ; the common electrode layer is located on the color filter layer , the wires are located between the black matrix layer and the color filter layer , and the self-capacitance electrodes and corresponding wires are electrically connected through via holes in the color filter layer ; orthogonal projections of gaps between two adjacent ones of the self-capacitance electrodes on the bottom substrate are within regions of patterns of the black matrix layer ; orthogonal projections of the wires on the bottom substrate are within regions of the pattern of the black matrix layer ; and the black matrix layer is located on a side of the top substrate facing the bottom substrate and the color filter layer is disposed on the black matrix layer . the self-capacitance electrodes and the wires are both disposed on a side of the top substrate that faces the bottom substrate ; the common electrode layer is located on the color filter layer , the wires are located between the black matrix layer and the color filter layer , and the self-capacitance electrodes and corresponding wires are electrically connected through via holes in the color filter layer ; orthogonal projections of gaps between two adjacent ones of the self-capacitance electrodes on the bottom substrate are within regions of patterns of the black matrix layer ; orthogonal projections of the wires on the bottom substrate are within regions of the pattern of the black matrix layer ; and the black matrix layer is located on a side of the top substrate facing the bottom substrate and the color filter layer is disposed on the black matrix layer .
A unit cell alignment apparatus (100; 200) comprising: a base member (110; 210), on an upper surface of which unit cells constituting an electrode assembly are stacked parallel thereto; a first guide member (120; 220) located at one side of the base member, the first guide member being disposed so as to be perpendicular to the upper surface of the base member; a second guide member (130; 230) located at the base member, the second guide member being disposed so as to be perpendicular to the upper surface of the base member while being at right angles to the first guide member; and an inclination adjustment member (140; 240) configured to adjust an inclination of the base member. a base member (110; 210), on an upper surface of which unit cells constituting an electrode assembly are stacked parallel thereto; a first guide member (120; 220) located at one side of the base member, the first guide member being disposed so as to be perpendicular to the upper surface of the base member; a second guide member (130; 230) located at the base member, the second guide member being disposed so as to be perpendicular to the upper surface of the base member while being at right angles to the first guide member; and an inclination adjustment member (140; 240) configured to adjust an inclination of the base member.
A docking arrangement for docking a vessel to a pier, comprising docking members for mechanical docking of the vessel to the pier , and electric connectors for transmission of electric energy during docking of the vessel to the pier , wherein the electric connectors of the vessel and the pier are positioned such that they align to each other during mechanical docking of the vessel to the pier, characterized in that the mechanical and electric connecting members extend in horizontal longitudinal direction of the vessel.
A compact sight device (10; 100), comprising: a housing having a viewing end (14; 114) and an opposing target end (16; 116), a viewing path (18; 118) being defined from the viewing end (14; 114) to the target end (16; 116); a light source (20; 120) operable to project a light beam (60; 160) along a path; a holographic optical element, HOE, (40; 140) disposed in the path of the light beam (60; 160) such that the HOE (40; 140) is illuminated by the light beam (60; 160) at a positive incidence angle (72; 177) defined with respect to a line (42; 142) perpendicular to the surface of the HOE (40; 140), the HOE (40; 140) reconstructing an object beam (80; 180) with an image of a reticle, the object beam (80; 180) having a positive object beam angle (82; 182) measured with respect to the line (42; 142) perpendicular to the surface of the HOE (40; 140), the positive incidence angle (72; 177) and the positive object beam angle (82; 182) defined as being on opposite sides of the perpendicular line (42; 142), the incidence angle (72; 177) and the object beam angle (82; 182) being substantially equal; the HOE (40; 140) further reflecting a portion of the light beam (60; 160) at a reflection angle substantially equal to the object beam angle (82; 182) such that a user viewing the object beam (80; 180) will also see a reflected image of the light source (20; 120). a housing having a viewing end (14; 114) and an opposing target end (16; 116), a viewing path (18; 118) being defined from the viewing end (14; 114) to the target end (16; 116); a light source (20; 120) operable to project a light beam (60; 160) along a path; a holographic optical element, HOE, (40; 140) disposed in the path of the light beam (60; 160) such that the HOE (40; 140) is illuminated by the light beam (60; 160) at a positive incidence angle (72; 177) defined with respect to a line (42; 142) perpendicular to the surface of the HOE (40; 140), the HOE (40; 140) reconstructing an object beam (80; 180) with an image of a reticle, the object beam (80; 180) having a positive object beam angle (82; 182) measured with respect to the line (42; 142) perpendicular to the surface of the HOE (40; 140), the positive incidence angle (72; 177) and the positive object beam angle (82; 182) defined as being on opposite sides of the perpendicular line (42; 142), the incidence angle (72; 177) and the object beam angle (82; 182) being substantially equal; the HOE (40; 140) further reflecting a portion of the light beam (60; 160) at a reflection angle substantially equal to the object beam angle (82; 182) such that a user viewing the object beam (80; 180) will also see a reflected image of the light source (20; 120).
A processor comprising: at least one core to execute instructions; and a memory controller (1572; 1630) coupled to the at least one core , the memory controller (1572; 1630) including a spare logic to cause a dynamic transfer of data stored on a first memory device coupled to the processor to a spare memory device coupled to the processor, responsive to a temperature of the first memory device exceeding a thermal threshold, the memory controller (1572; 1630) further comprises a plurality of first counters each associated with a memory device of the first and the spare memory devices coupled to the processor and to count a duration of a temperature of the associated memory device exceeding the thermal threshold, wherein the spare logic is to cause the dynamic transfer further when a first counter of the plurality of first counters associated with the first memory device exceeds a second threshold, and characterized in that the memory controller (1572; 1630) also comprises a second counter to count a number of times that the dynamic transfer has occurred between the first and spare memory devices , wherein the spare logic is to update the second counter on occurrence of the dynamic transfer; wherein the spare logic , responsive to the second counter exceeding a third threshold, is to disable the dynamic transfer and to cause the first memory device to be throttled. at least one core to execute instructions; and a memory controller (1572; 1630) coupled to the at least one core , the memory controller (1572; 1630) including a spare logic to cause a dynamic transfer of data stored on a first memory device coupled to the processor to a spare memory device coupled to the processor, responsive to a temperature of the first memory device exceeding a thermal threshold, the memory controller (1572; 1630) further comprises a plurality of first counters each associated with a memory device of the first and the spare memory devices coupled to the processor and to count a duration of a temperature of the associated memory device exceeding the thermal threshold, wherein the spare logic is to cause the dynamic transfer further when a first counter of the plurality of first counters associated with the first memory device exceeds a second threshold, and characterized in that the memory controller (1572; 1630) also comprises a second counter to count a number of times that the dynamic transfer has occurred between the first and spare memory devices , wherein the spare logic is to update the second counter on occurrence of the dynamic transfer; wherein the spare logic , responsive to the second counter exceeding a third threshold, is to disable the dynamic transfer and to cause the first memory device to be throttled.
A pulverulent composition which is free of hydrocarbons and comprises as main constituents a) from 5 to 40% by weight of at least one fatty acid derivative and/or fatty alcohol derivative which is not a hydrocarbon, b) from 0.5 to 10% by weight of at least one silicone oil, and c) from 20 to 85% by weight of at least one support material, where the components a) and b) have been applied to the support material c). a) from 5 to 40% by weight of at least one fatty acid derivative and/or fatty alcohol derivative which is not a hydrocarbon, b) from 0.5 to 10% by weight of at least one silicone oil, and c) from 20 to 85% by weight of at least one support material, where the components a) and b) have been applied to the support material c).
A vehicle occupant identification system comprising: a detection system including a proximity sensor configured to detect that an individual is proximate a vehicle ; a secondary sensor, wherein the proximity sensor monitors the individual and an identification system is activated when the secondary sensor also detects the presence of the individual ; a controller operably coupled with the detection system and configured to activate the identification system , the identification system including an imager configured to illuminate an eye of an occupant of the vehicle and capture at least one image of an iris and a pupil of the eye ; and a processor configured to compare the at least one image of the iris of the eye of the occupant with previously stored iris information to identify the occupant and activate the vehicle . a detection system including a proximity sensor configured to detect that an individual is proximate a vehicle ; a secondary sensor, wherein the proximity sensor monitors the individual and an identification system is activated when the secondary sensor also detects the presence of the individual ; a controller operably coupled with the detection system and configured to activate the identification system , the identification system including an imager configured to illuminate an eye of an occupant of the vehicle and capture at least one image of an iris and a pupil of the eye ; and a processor configured to compare the at least one image of the iris of the eye of the occupant with previously stored iris information to identify the occupant and activate the vehicle .
A display device comprising: a display panel including: a plurality of protrusions (CP) disposed at a corner portion (CS) of the display panel, and arranged to be partially separated from each other; and cutout portions (CG) where the protrusions adjacent to each other are physically separated, wherein each of the protrusions includes a plurality of pixels (PX2), wherein the pixels include a light emitting layer and each of the plurality of protrusions further includes: a planarization layer , characterised in that : each of the protrusions includes a recess (RC) that surrounds the plurality of pixels; the planarization layer defines the recess (RC) and is disposed under the light emitting layer and a dummy light emitting layer (FP) in the recess, wherein the light emitting layer and the dummy light emitting layer are separated and spaced apart from each other. a display panel including: a plurality of protrusions (CP) disposed at a corner portion (CS) of the display panel, and arranged to be partially separated from each other; and cutout portions (CG) where the protrusions adjacent to each other are physically separated, a plurality of protrusions (CP) disposed at a corner portion (CS) of the display panel, and arranged to be partially separated from each other; and cutout portions (CG) where the protrusions adjacent to each other are physically separated, wherein each of the protrusions includes a plurality of pixels (PX2), wherein the pixels include a light emitting layer and each of the plurality of protrusions further includes: a planarization layer , characterised in that : each of the protrusions includes a recess (RC) that surrounds the plurality of pixels; the planarization layer defines the recess (RC) and is disposed under the light emitting layer and a dummy light emitting layer (FP) in the recess, wherein the light emitting layer and the dummy light emitting layer are separated and spaced apart from each other. a planarization layer , characterised in that : each of the protrusions includes a recess (RC) that surrounds the plurality of pixels; the planarization layer defines the recess (RC) and is disposed under the light emitting layer and each of the protrusions includes a recess (RC) that surrounds the plurality of pixels; the planarization layer defines the recess (RC) and is disposed under the light emitting layer and a dummy light emitting layer (FP) in the recess, wherein the light emitting layer and the dummy light emitting layer are separated and spaced apart from each other.