mhurhangee/ep-ind-claims huggingface dataset:
An information transmission method, comprising: receiving downlink control information corresponding to a message, wherein the receiving downlink control information comprises: when a reception time window of the message starts or ends within a continuous monitoring time period of a control resource set CORESET corresponding to the message, the downlink control information is not received on the CORESET; receiving the message corresponding to the received downlink control information, wherein the receiving downlink control information corresponding to a message comprises: the downlink control information is received on a CORESET completely located in the reception time window other than the CORESET corresponding to the continuous monitoring time period. receiving downlink control information corresponding to a message, wherein the receiving downlink control information comprises: when a reception time window of the message starts or ends within a continuous monitoring time period of a control resource set CORESET corresponding to the message, the downlink control information is not received on the CORESET; receiving the message corresponding to the received downlink control information, wherein the receiving downlink control information corresponding to a message comprises: the downlink control information is received on a CORESET completely located in the reception time window other than the CORESET corresponding to the continuous monitoring time period.
A composition, comprising: 30-95 wt% of a random or homogeneous propylene-based interpolymer having: (i) a comonomer content of at least one of C 2 and C 4-10 α-olefins of 7 wt% to 49 wt% based on the total weight of the propylene-based interpolymer, (ii) a density of 0.90 g/cc or less, and (iii) an MFR of 1 g/10 min or greater (230°C/2.16 kg); and 5-70 wt% of a block composite nucleator comprising: a first polymer that includes polypropylene; a second polymer that includes an alpha-olefin based polymer, wherein the alpha-olefin is ethylene; a block copolymer having a first segment and a second segment, the first segment of the block copolymer having the same composition as the first polymer in the block composite nucleator and the second segment of the block copolymer having the same composition as the second polymer of the block composite nucleator, wherein the block composite nucleator is a nucleating agent and the composition excludes any other nucleating agents; and wherein the second segment of the block copolymer includes at least 80 wt% of the mer units derived from ethylene. 30-95 wt% of a random or homogeneous propylene-based interpolymer having: (i) a comonomer content of at least one of C 2 and C 4-10 α-olefins of 7 wt% to 49 wt% based on the total weight of the propylene-based interpolymer, (ii) a density of 0.90 g/cc or less, and (iii) an MFR of 1 g/10 min or greater (230°C/2.16 kg); and 5-70 wt% of a block composite nucleator comprising: a first polymer that includes polypropylene; a second polymer that includes an alpha-olefin based polymer, wherein the alpha-olefin is ethylene; a block copolymer having a first segment and a second segment, the first segment of the block copolymer having the same composition as the first polymer in the block composite nucleator and the second segment of the block copolymer having the same composition as the second polymer of the block composite nucleator, wherein the block composite nucleator is a nucleating agent and the composition excludes any other nucleating agents; and wherein the second segment of the block copolymer includes at least 80 wt% of the mer units derived from ethylene. a first polymer that includes polypropylene; a second polymer that includes an alpha-olefin based polymer, wherein the alpha-olefin is ethylene; a block copolymer having a first segment and a second segment, the first segment of the block copolymer having the same composition as the first polymer in the block composite nucleator and the second segment of the block copolymer having the same composition as the second polymer of the block composite nucleator, wherein the block composite nucleator is a nucleating agent and the composition excludes any other nucleating agents; and wherein the second segment of the block copolymer includes at least 80 wt% of the mer units derived from ethylene.
A substrate pretreatment material comprising; a) from 0.1 to 50 weight percent of an azetidinium functionalized polymer, b) from 0.1 to 50 weight percent of an at least partially quaternized copolymer of sulfur dioxide and allylamine and/or diallylamine of weight average molecular weight from 3,000 to 200,000 g/mole, wherein allylamine includes mono, di, and trialkyl (C 1 -C 6) substituted allylamine and diallylamine includes mono and dialkyl (C 1 -C 6) substituted diallylamine, optionally a surface tension modifier selected from the group of mono or polyhydroxy C 1 -C 10 alcohol, an alkylene oxide oligomer of less than 500 g/mole molecular weight, or a surfactant, wherein said weight percent are based on 100 parts by weight of substrate pretreatment. a) from 0.1 to 50 weight percent of an azetidinium functionalized polymer, b) from 0.1 to 50 weight percent of an at least partially quaternized copolymer of sulfur dioxide and allylamine and/or diallylamine of weight average molecular weight from 3,000 to 200,000 g/mole, wherein allylamine includes mono, di, and trialkyl (C 1 -C 6) substituted allylamine and diallylamine includes mono and dialkyl (C 1 -C 6) substituted diallylamine, optionally a surface tension modifier selected from the group of mono or polyhydroxy C 1 -C 10 alcohol, an alkylene oxide oligomer of less than 500 g/mole molecular weight, or a surfactant, wherein said weight percent are based on 100 parts by weight of substrate pretreatment.
A folding cotter for securing machine components such as axles or locking pins, having a pin, comprising two holes (7, 8) and a locking recess in the region of the head end thereof, and an open spring ring, rotatably supported in the two holes (7, 8) in the region of the two ends thereof (9, 10), so that said ring can be pivoted between an open position and a closed position, and comprising a locking segment corresponding to the locking recess of the pin, such that the spring ring is locked in the closed position and can be pivoted out of the same into the open position again when the locking segment is shifted out of the locking recess into an unlocked position in the transverse direction of the pin, starting from a locked position, characterized in that the pin comprises a bevel by means of which the locking segment can be shifted outward into the unlocked position when pivoting from the open position in the direction of the closed position in the direction transverse to the pin a pin, comprising two holes (7, 8) and a locking recess in the region of the head end thereof, and an open spring ring, rotatably supported in the two holes (7, 8) in the region of the two ends thereof (9, 10), so that said ring can be pivoted between an open position and a closed position, and comprising a locking segment corresponding to the locking recess of the pin, such that the spring ring is locked in the closed position and can be pivoted out of the same into the open position again when the locking segment is shifted out of the locking recess into an unlocked position in the transverse direction of the pin, starting from a locked position, characterized in that the pin comprises a bevel by means of which the locking segment can be shifted outward into the unlocked position when pivoting from the open position in the direction of the closed position in the direction transverse to the pin
A transmittance-variable device, comprising: a retardation film having in-plane retardation of 5,000 nm or more for light having a wavelength of 550 nm; a liquid crystal alignment film; and a transmittance-variable layer configured to generate a polarization component, wherein the retardation film, the liquid crystal alignment film and the transmittance-variable layer are comprised in the above order, and wherein the smallest angle among angles between the slow axis of the retardation film and the alignment direction of the liquid crystal alignment film is in a range of 0 degrees to 70 degrees. a retardation film having in-plane retardation of 5,000 nm or more for light having a wavelength of 550 nm; a liquid crystal alignment film; and a transmittance-variable layer configured to generate a polarization component,
A light-emitting module comprising: a mounting board with a conductor pattern including a plurality of mount portions; and a plurality of light-emitting units, each unit comprising a plurality of light-emitting elements connected in series, the plurality of light-emitting elements being mounted on mount portions of the conductor pattern such that luminous surfaces of the light-emitting elements face away from the mounting board and being connected to the conductor pattern via a plurality of wires, with the wires overlapping said luminous surfaces of the light-emitting elements; wherein the wires extending from said luminous surfaces of the light-emitting elements toward the conductor pattern do not all extend in the same direction when viewed perpendicularly to the mounting board; characterized in that the light-emitting units are spatially arranged in parallel on the mounting board; and adjacent ones of the light-emitting units differ in the extending direction of each of the wires. a mounting board with a conductor pattern including a plurality of mount portions; and a plurality of light-emitting units, each unit comprising a plurality of light-emitting elements connected in series, the plurality of light-emitting elements being mounted on mount portions of the conductor pattern such that luminous surfaces of the light-emitting elements face away from the mounting board and being connected to the conductor pattern via a plurality of wires, with the wires overlapping said luminous surfaces of the light-emitting elements; wherein the wires extending from said luminous surfaces of the light-emitting elements toward the conductor pattern do not all extend in the same direction when viewed perpendicularly to the mounting board; characterized in that the light-emitting units are spatially arranged in parallel on the mounting board; and adjacent ones of the light-emitting units differ in the extending direction of each of the wires.
A 3D printed building element comprising: - a 3D printed block comprising an upper wall, a front wall, a rear wall and two lateral walls, defining an inner space, the lower portions of the walls (24, 26, 28, 29) defining an inner edge developing seamlessly to form a bottom edge surface; - two internal ducts disposed in the inner space, each defining a first feedthrough opening provided on the upper wall, and an opposite second feedthrough opening facing the bottom edge surface; the building element further comprises two connecting elements, each inserted in a corresponding duct of the block, so that a first portion of the connection element is exposed outside the first feedthrough opening provided on the upper wall and is suitable to be inserted in a second feedthrough opening facing the bottom edge surface of a duct of a further block superimposed to the block. - a 3D printed block comprising an upper wall, a front wall, a rear wall and two lateral walls, defining an inner space, the lower portions of the walls (24, 26, 28, 29) defining an inner edge developing seamlessly to form a bottom edge surface; - two internal ducts disposed in the inner space, each defining a first feedthrough opening provided on the upper wall, and an opposite second feedthrough opening facing the bottom edge surface;
A method for detection of a ground fault in a high resistance ground network prior to powering a load, wherein the high resistance ground network includes a voltage source power conversion circuit comprising a power converter that converts incoming AC power to DC power applied to a DC bus and an inverter that converts DC power from the DC bus to output AC power, a DC bus voltage measurement circuit, a midpoint-to-ground voltage detection circuit connected to the DC bus voltage measurement circuit and a monitoring and analysis circuit connected to the midpoint-to-ground voltage detection circuit, the method is characterised in that it comprises the following sequence of steps: determining, by the monitoring and analysis circuit, a line side ground fault by detecting a line side fundamental frequency component in the midpoint-to-ground voltage; determining, by the monitoring and analysis circuit, a DC bus ground fault by detecting a DC offset component in the midpoint-to-ground voltage; placing all high-side or low-side electronic switches of the inverter into a conducting state and determining, by the monitoring and analysis circuit, a load side ground fault by detecting a DC offset component in the midpoint-to-ground voltage. determining, by the monitoring and analysis circuit, a line side ground fault by detecting a line side fundamental frequency component in the midpoint-to-ground voltage; determining, by the monitoring and analysis circuit, a DC bus ground fault by detecting a DC offset component in the midpoint-to-ground voltage; placing all high-side or low-side electronic switches of the inverter into a conducting state and determining, by the monitoring and analysis circuit, a load side ground fault by detecting a DC offset component in the midpoint-to-ground voltage.
A method for forming molten glass comprising a supply step in which molten glass having a temperature of at least the softening point is discharged in a strip shape in the form of a glass ribbon, which is supplied on the surface (Ma) of molten metal, and a transport step (S 12) of transporting the glass ribbon supplied on the surface (Ma) of the molten metal, wherein said transport step (S 12) includes a cooling step (S12a) of cooling the glass ribbon being transported, in a region on the upstream side in the transport direction, so that the temperature of the glass ribbon becomes lower than the softening point in the entire width direction, wherein the temperature of the glass ribbon in the supply step is at least the softening point, wherein the temperature of the molten metal at a location where the glass ribbon is supplied, is lower than the softening point of the molten glass and higher than the annealing point of the molten glass, in the cooling step (S 12a), the glass ribbon is cooled by the molten metal, wherein in the supply step, the glass ribbon is supplied on the surface (Ma) of the molten metal by letting the glass ribbon be dropped vertically downward so that the thickness of the glass ribbon is adjusted by stretching the glass ribbon by its own weight, and wherein the glass ribbon is not stretched on the surface (Ma) of the molten metal. a supply step in which molten glass having a temperature of at least the softening point is discharged in a strip shape in the form of a glass ribbon, which is supplied on the surface (Ma) of molten metal, and a transport step (S 12) of transporting the glass ribbon supplied on the surface (Ma) of the molten metal, wherein said transport step (S 12) includes a cooling step (S12a) of cooling the glass ribbon being transported, in a region on the upstream side in the transport direction, so that the temperature of the glass ribbon becomes lower than the softening point in the entire width direction, wherein the temperature of the glass ribbon in the supply step is at least the softening point, wherein the temperature of the molten metal at a location where the glass ribbon is supplied, is lower than the softening point of the molten glass and higher than the annealing point of the molten glass, in the cooling step (S 12a), the glass ribbon is cooled by the molten metal, wherein in the supply step, the glass ribbon is supplied on the surface (Ma) of the molten metal by letting the glass ribbon be dropped vertically downward so that the thickness of the glass ribbon is adjusted by stretching the glass ribbon by its own weight, and wherein the glass ribbon is not stretched on the surface (Ma) of the molten metal.
A method of laser processing a transparent material, comprising the steps of: providing a laser beam, said laser beam includes a burst of laser pulses, said burst having multiple laser pulses, said material being transparent to said laser beam and focusing said laser beam pulses, characterized in that said focusing is through one or more aberrated optical elements to form a beam waist at a location that is external to said transparent material, to produce a distributed focus along a longitudinal axis of said laser beam within said transparent material, and that said focused laser beam having a sufficient energy density within said transparent material to form and maintain a continuous laser filament therein, wherein the laser energy deposited along said continuous laser filament leads to an internal modification of said material, said internal modification having a shape defined by said continuous filament. providing a laser beam, said laser beam includes a burst of laser pulses, said burst having multiple laser pulses, said material being transparent to said laser beam and focusing said laser beam pulses, characterized in that said focusing is through one or more aberrated optical elements to form a beam waist at a location that is external to said transparent material, to produce a distributed focus along a longitudinal axis of said laser beam within said transparent material, and that said focused laser beam having a sufficient energy density within said transparent material to form and maintain a continuous laser filament therein, wherein the laser energy deposited along said continuous laser filament leads to an internal modification of said material, said internal modification having a shape defined by said continuous filament.
A device, comprising: a first portion that includes a keyboard and a touchpad and a corresponding underlying second portion, both the first portion and the second portion having edges extending between corners; and, the first portion and the second portion each comprising magnetic elements that bias the edges of the first portion and the edges of the second portion toward one another, the first portion and the second portion each contributing to an alignment assembly that includes alignment pins in the corners of the first portion that are configured to laterally align with pin receptables in the corners of the second portion as the first and second portions (102, 104) are biased toward one another by the magnetic elements, and, the first portion and the second portion each contributing to a locking assembly that secures the comers of the first portion and the corners of the second portion against one another via fasteners that extend through recesses in the corners of the first portion adjacent to the alignment pins and are received in threaded recesses of the second portion, the recesses and the threaded recesses being aligned to receive the fasteners by the alignment pins and the pin receptacles. a first portion that includes a keyboard and a touchpad and a corresponding underlying second portion, both the first portion and the second portion having edges extending between corners; and, the first portion and the second portion each comprising magnetic elements that bias the edges of the first portion and the edges of the second portion toward one another, the first portion and the second portion each contributing to an alignment assembly that includes alignment pins in the corners of the first portion that are configured to laterally align with pin receptables in the corners of the second portion as the first and second portions (102, 104) are biased toward one another by the magnetic elements, and, the first portion and the second portion each contributing to a locking assembly that secures the comers of the first portion and the corners of the second portion against one another via fasteners that extend through recesses in the corners of the first portion adjacent to the alignment pins and are received in threaded recesses of the second portion, the recesses and the threaded recesses being aligned to receive the fasteners by the alignment pins and the pin receptacles.
Method for preparing a 3D scan of at least part of a surface of an object by means of a 3D scanner which comprises a control and evaluation unit and two cameras (1, 2) which are arranged in or on the 3D scanner, wherein the 3D scanner comprises an object space with an object carrier arranged movably therein, wherein - the object is positioned on the object carrier in the object space of the 3D scanner, - the two cameras (1, 2) each synchronously produce a recorded image of at least part of a surface of the object, - by means of the regulation and evaluation unit, the state of the object and its position and orientation in the object space are determined on the basis of the recorded images - and based thereon, a scanning strategy for the 3D scan is set by the control and evaluation unit, characterized in that - an operator of the 3D scanner manually points to a specific area in the object space with a finger or delimits a specific area with a movement of the finger, wherein this gesture is detected by means of the cameras (1, 2) and the control and evaluation unit and is taken into account when orienting the object carrier and/or setting the scanning strategy. - the object is positioned on the object carrier in the object space of the 3D scanner, - the two cameras (1, 2) each synchronously produce a recorded image of at least part of a surface of the object, - by means of the regulation and evaluation unit, the state of the object and its position and orientation in the object space are determined on the basis of the recorded images - and based thereon, a scanning strategy for the 3D scan is set by the control and evaluation unit, characterized in that - an operator of the 3D scanner manually points to a specific area in the object space with a finger or delimits a specific area with a movement of the finger, wherein this gesture is detected by means of the cameras (1, 2) and the control and evaluation unit and is taken into account when orienting the object carrier and/or setting the scanning strategy.