mhurhangee/ep-ind-claims huggingface dataset:
A method of wireless communication performed by a user equipment, UE, the method comprising: establishing, using a first frequency band, a first communication connection on a first subscriber identity module, SIM; establishing, using a second frequency band, a second communication connection on a second SIM in a multi-SIM dual receive mode that includes the first SIM and the second SIM having concurrent activity; switching from a first antenna to a second antenna for the first SIM in accordance with an antenna switching capability that is based at least in part on whether the first communication connection and the second communication connection are time division duplex, TDD, synchronized; and transmitting one or more communications associated with the first SIM using the second antenna. establishing, using a first frequency band, a first communication connection on a first subscriber identity module, SIM; establishing, using a second frequency band, a second communication connection on a second SIM in a multi-SIM dual receive mode that includes the first SIM and the second SIM having concurrent activity; switching from a first antenna to a second antenna for the first SIM in accordance with an antenna switching capability that is based at least in part on whether the first communication connection and the second communication connection are time division duplex, TDD, synchronized; and transmitting one or more communications associated with the first SIM using the second antenna.
A spray head for a shower comprising: a body comprising a head portion; a spray plate located in the head portion of the body and having an apertured portion and an actuator portion, the apertured portion having apertures therein and the actuator portion being configured to be depressed by a user to change a spray pattern provided by the apertures of the apertured portion; and a spray control mechanism located in the head portion of the body and comprising a flow plate and a switch member pivotally connected to the flow plate, wherein the spray plate overlies the flow plate and the switch member, wherein depression of the actuator portion operates the spray control mechanism via the switch member, and wherein the flow plate and the apertured portion of the spray plate are both fixed relative to the head portion of the body. a body comprising a head portion; a spray plate located in the head portion of the body and having an apertured portion and an actuator portion, the apertured portion having apertures therein and the actuator portion being configured to be depressed by a user to change a spray pattern provided by the apertures of the apertured portion; and a spray control mechanism located in the head portion of the body and comprising a flow plate and a switch member pivotally connected to the flow plate, wherein the spray plate overlies the flow plate and the switch member, wherein depression of the actuator portion operates the spray control mechanism via the switch member, and wherein the flow plate and the apertured portion of the spray plate are both fixed relative to the head portion of the body.
Resealable pouring spout for a bag consisting of flexible film, wherein the resealable pouring spout consists of a pouring spout body, which can be welded to the bag and has a flange, a cutting device disposed in the pouring spout body and having a flange-side cutting system, and a screwable sealing cap placed onto the pouring spout body, and wherein the pouring spout is provided with means in order to turn and displace the cutting device in the direction of the flange when the sealing cap is opened for the first time, and thereby cut open the bag in the flange region and create a pour-out opening there, - wherein the cutting system of the cutting device has at least one cutting tooth group extending over a part of a cutting circle circumference, - wherein the cutting tooth group respectively has a number of cutting teeth (12, 12a), characterized in that - the cutting teeth of the cutting tooth group are arranged such that a leading cutting tooth in a cutting direction protrudes farthest in an axial direction, and the further cutting teeth, following on from the leading cutting tooth, of the cutting tooth group protrude on a continually decreasing scale less far in the axial direction, - wherein the leading cutting tooth in the cutting tooth group has a flattening running parallel to the flange, and in that the further cutting teeth, following on from the leading cutting tooth, of the cutting tooth group have constantly diminishing flattenings following an equal course. - wherein the cutting system of the cutting device has at least one cutting tooth group extending over a part of a cutting circle circumference, - wherein the cutting tooth group respectively has a number of cutting teeth (12, 12a), characterized in that - the cutting teeth of the cutting tooth group are arranged such that a leading cutting tooth in a cutting direction protrudes farthest in an axial direction, and the further cutting teeth, following on from the leading cutting tooth, of the cutting tooth group protrude on a continually decreasing scale less far in the axial direction, - wherein the leading cutting tooth in the cutting tooth group has a flattening running parallel to the flange, and in that the further cutting teeth, following on from the leading cutting tooth, of the cutting tooth group have constantly diminishing flattenings following an equal course.
A method of forming a tear seam in an airbag covering, comprising: (a) providing an airbag covering including a skin layer and a foam layer, the layers having surfaces in facial contact with each other; (b) directing a laser light beam from a laser light source toward the covering such that the foam layer is located between the light source and the skin layer; (c) successively forming a plurality of laser cuts in the covering at a plurality of spaced apart locations along a pre-determined cutting pattern that corresponds to a desired tear seam location; and characterized in that said method comprises: (d) limiting the amount of energy leakage from the location of each successive laser cut to the location of previously formed laser cuts while forming each successive laser cut by providing an additive in the foam layer that affects the energy transmission characteristics of the foam layer. (a) providing an airbag covering including a skin layer and a foam layer, the layers having surfaces in facial contact with each other; (b) directing a laser light beam from a laser light source toward the covering such that the foam layer is located between the light source and the skin layer; (c) successively forming a plurality of laser cuts in the covering at a plurality of spaced apart locations along a pre-determined cutting pattern that corresponds to a desired tear seam location; and characterized in that said method comprises: (d) limiting the amount of energy leakage from the location of each successive laser cut to the location of previously formed laser cuts while forming each successive laser cut by providing an additive in the foam layer that affects the energy transmission characteristics of the foam layer.
A terminal apparatus comprising: a monitor unit configured to monitor a first physical downlink control channel, PDCCH, candidate with aggregation level 8 and a second PDCCH candidate with aggregation level 16 in a CORESET mapped to one orthogonal frequency division multiplexing, OFDM, symbol; and a receiver configured to receive a physical downlink shared channel, PDSCH, which is scheduled by a PDCCH detected in the first PDCCH candidate, by assuming that a symbol of the PDSCH is mapped to a resource element that is not overlapping the second PDCCH candidate, wherein a smallest index of a first plurality of control channel elements, CCEs, that constitute the first PDCCH candidate is identical to a smallest index of a second plurality of CCEs that constitute the second PDCCH candidate, and each of a plurality of the CCEs constituting the CORESET includes six contiguous REGs in a frequency domain. a monitor unit configured to monitor a first physical downlink control channel, PDCCH, candidate with aggregation level 8 and a second PDCCH candidate with aggregation level 16 in a CORESET mapped to one orthogonal frequency division multiplexing, OFDM, symbol; and a receiver configured to receive a physical downlink shared channel, PDSCH, which is scheduled by a PDCCH detected in the first PDCCH candidate, by assuming that a symbol of the PDSCH is mapped to a resource element that is not overlapping the second PDCCH candidate, wherein a smallest index of a first plurality of control channel elements, CCEs, that constitute the first PDCCH candidate is identical to a smallest index of a second plurality of CCEs that constitute the second PDCCH candidate, and each of a plurality of the CCEs constituting the CORESET includes six contiguous REGs in a frequency domain.
A near-infrared spectroscopy (NIRS) sensor assembly for measuring a characteristic of a biological tissue, the NIRS sensor assembly comprising: a light source operable to emit light at one or more predetermined wavelengths; at least one light detector (24, 26) having an active area for detecting light emitted by the light source and passed through the biological tissue, and which detector is operable to produce signals representative of the detected light; and a pad configured for attachment to a user's skin surface, said pad having a top surface facing the user's skin surface, an opposing bottom surface, at least one side surface extending between the top and bottom surfaces, and at least one light source aperture and at least one light detector aperture (70, 72) that extend in a height wise direction between the bottom surface and the top surface and at least partially accommodate said light source and said at least one light detector (24, 26), respectively; and a circuit for electrically connecting the light source and the at least one light detector (24, 26), wherein the circuit is attached to the bottom surface of the pad; a cover attached to the surface of the circuit that is opposite the light source and the at least one light detector (24, 26) and having a geometry that matches the geometry of the pad; wherein said pad further having at least one deflection element, in the form of a slot or channel or a plurality of aligned voids, disposed in at least one of the top or bottom surfaces (64, 66) to facilitate bending of the pad, wherein the at least one deflection element does not break through the at least one side surface. a light source operable to emit light at one or more predetermined wavelengths; at least one light detector (24, 26) having an active area for detecting light emitted by the light source and passed through the biological tissue, and which detector is operable to produce signals representative of the detected light; and a pad configured for attachment to a user's skin surface, said pad having a top surface facing the user's skin surface, an opposing bottom surface, at least one side surface extending between the top and bottom surfaces, and at least one light source aperture and at least one light detector aperture (70, 72) that extend in a height wise direction between the bottom surface and the top surface and at least partially accommodate said light source and said at least one light detector (24, 26), respectively; and a circuit for electrically connecting the light source and the at least one light detector (24, 26), wherein the circuit is attached to the bottom surface of the pad; a cover attached to the surface of the circuit that is opposite the light source and the at least one light detector (24, 26) and having a geometry that matches the geometry of the pad; wherein said pad further having at least one deflection element, in the form of a slot or channel or a plurality of aligned voids, disposed in at least one of the top or bottom surfaces (64, 66) to facilitate bending of the pad, wherein the at least one deflection element does not break through the at least one side surface.
A method of x-ray projection geometry calibration in x-ray cone beam computed tomography, the method comprising: at least one step of obtaining a sinogram of at least a part of an object, generated through relatively rotating around the object a detector and an x-ray source projecting x-rays towards the detector; further comprising: at least one step of detecting in the sinogram at least one feature of the object by using a trained artificial intelligence algorithm, wherein in the at least one obtaining step the object is a patient, and the corresponding feature comprises an anatomical part or a prosthetic part of the patient body or the patient head; and at least one step of creating, based on the detection, calibration information which defines the geometry of the x-ray projection, wherein the calibration information created corresponds to a patient-specific calibration information; and a step of reconstructing a three-dimensional tomographic image based on the sinogram of at least a part of the body of the patient and the corresponding patient-specific calibration information. at least one step of obtaining a sinogram of at least a part of an object, generated through relatively rotating around the object a detector and an x-ray source projecting x-rays towards the detector; further comprising: at least one step of detecting in the sinogram at least one feature of the object by using a trained artificial intelligence algorithm, wherein in the at least one obtaining step the object is a patient, and the corresponding feature comprises an anatomical part or a prosthetic part of the patient body or the patient head; and at least one step of creating, based on the detection, calibration information which defines the geometry of the x-ray projection, wherein the calibration information created corresponds to a patient-specific calibration information; and a step of reconstructing a three-dimensional tomographic image based on the sinogram of at least a part of the body of the patient and the corresponding patient-specific calibration information. at least one step of detecting in the sinogram at least one feature of the object by using a trained artificial intelligence algorithm, wherein in the at least one obtaining step the object is a patient, and the corresponding feature comprises an anatomical part or a prosthetic part of the patient body or the patient head; and at least one step of creating, based on the detection, calibration information which defines the geometry of the x-ray projection, wherein the calibration information created corresponds to a patient-specific calibration information; and a step of reconstructing a three-dimensional tomographic image based on the sinogram of at least a part of the body of the patient and the corresponding patient-specific calibration information.
A method for manufacturing a double-sided adhesive material for attaching an article to a subject, comprising: a step of applying a photo curing adhesive by direct drawing onto a specific region that corresponds to a shape of the article on one surface of a sheet shaped first transparent member using a robot equipped with a nozzle for spraying an adhesive solution, the robot being able to move in at least two dimensions; a step of placing a sheet shaped second transparent member onto the first transparent member with the adhesive that had been applied onto the surface of the first transparent member interposed therebetween so as to sandwich the adhesive between the first transparent member and the second transparent member, after the step of applying the photo curing adhesive; a step of irradiating light onto and curing the adhesive that was applied to the surface of the first transparent member, wherein light is irradiated from both sides of the adhesive so that light passes through both the first transparent member and the second transparent member and reaches the adhesive; and a step of removing the cured adhesive from the surface of the first transparent member to obtain a double-sided adhesive material. a step of applying a photo curing adhesive by direct drawing onto a specific region that corresponds to a shape of the article on one surface of a sheet shaped first transparent member using a robot equipped with a nozzle for spraying an adhesive solution, the robot being able to move in at least two dimensions; a step of placing a sheet shaped second transparent member onto the first transparent member with the adhesive that had been applied onto the surface of the first transparent member interposed therebetween so as to sandwich the adhesive between the first transparent member and the second transparent member, after the step of applying the photo curing adhesive; a step of irradiating light onto and curing the adhesive that was applied to the surface of the first transparent member, wherein light is irradiated from both sides of the adhesive so that light passes through both the first transparent member and the second transparent member and reaches the adhesive; and a step of removing the cured adhesive from the surface of the first transparent member to obtain a double-sided adhesive material.
A pharmaceutical composition comprising a bispecific antibody comprising a first antigen-binding site that binds domain I of ErbB-2 and a second antigen-binding site that binds domain III of ErbB-3, wherein the antibody can reduce a ligand-induced receptor function of ErbB-3 on a ErbB-2 and ErbB-3 positive cell, wherein the pharmaceutical composition comprises 5-50 mM Histidine, 100-300 mM Trehalose, 0.1-0.3 g/L PolySorbate20 or a combination thereof.
A method for repairing a display panel, the display panel comprising a plurality of pixels for display, each of the pixels including a color filter film on a substrate, at least part of the pixels having a bright spot defect, the bright spot defect being a constantly bright spot within a single pixel region, wherein the method comprises: determining a pixel where the bright spot defect resides and a position of the bright spot defect in the pixel; setting a repair region, the repair region being a region in the pixel including the bright spot defect and having an area smaller than that of the single pixel region; and forming a black material layer in the repair region for preventing light emitted from a directly-below portion thereof from leaving a display surface of the display panel; wherein forming a black material layer in the repair region comprises: performing carbonization treatment on the color filter film in the repair region by laser, such that the color filter film is irradiated with the laser and directly carbonized to form a carbonized color filter film; characterized in that the method further comprises: performing modification treatment on the color filter film in the repair region by laser prior to performing carbonization treatment on the color filter film in the repair region; and wherein parameters of the laser for the modification treatment comprise: a wavelength of 349 nm, an energy of 200 to 400 nJ, an operating rate of 150 to 300 μm/s, and a frequency of 40 to 60 Hz, wherein the operating rate is a traveling speed of a laser device. determining a pixel where the bright spot defect resides and a position of the bright spot defect in the pixel; setting a repair region, the repair region being a region in the pixel including the bright spot defect and having an area smaller than that of the single pixel region; and forming a black material layer in the repair region for preventing light emitted from a directly-below portion thereof from leaving a display surface of the display panel; wherein forming a black material layer in the repair region comprises: performing carbonization treatment on the color filter film in the repair region by laser, such that the color filter film is irradiated with the laser and directly carbonized to form a carbonized color filter film; characterized in that the method further comprises: performing modification treatment on the color filter film in the repair region by laser prior to performing carbonization treatment on the color filter film in the repair region; and wherein parameters of the laser for the modification treatment comprise: a wavelength of 349 nm, an energy of 200 to 400 nJ, an operating rate of 150 to 300 μm/s, and a frequency of 40 to 60 Hz, wherein the operating rate is a traveling speed of a laser device.
An imaging apparatus capable of communicating with a lens apparatus (200, 300) detachably mounted to the imaging apparatus, the imaging apparatus comprising: a mount unit where a plurality of electric contacts (1001 - 1012) are arrayed, wherein the plurality of electric contacts (1001 - 1012) include: a first electric contact group (1006, 1007, 1008) configured to communicate with a mounted lens apparatus (200, 300) by communication according to a first voltage, and communication according to a second voltage that differs from the first voltage, and a second electric contact group configured to allow communication with the mounted lens apparatus by the first voltage, wherein communication using the second electric contact group is not used in a case where communication using the first electric contact group (1006, 1007, 1008) is performed by the second voltage, and wherein the second electric contact group is disposed adjacent to the first electric contact group (1006, 1007, 1008). a mount unit where a plurality of electric contacts (1001 - 1012) are arrayed, wherein the plurality of electric contacts (1001 - 1012) include: a first electric contact group (1006, 1007, 1008) configured to communicate with a mounted lens apparatus (200, 300) by communication according to a first voltage, and communication according to a second voltage that differs from the first voltage, and a second electric contact group configured to allow communication with the mounted lens apparatus by the first voltage, a first electric contact group (1006, 1007, 1008) configured to communicate with a mounted lens apparatus (200, 300) by communication according to a first voltage, and communication according to a second voltage that differs from the first voltage, and a second electric contact group configured to allow communication with the mounted lens apparatus by the first voltage, wherein communication using the second electric contact group is not used in a case where communication using the first electric contact group (1006, 1007, 1008) is performed by the second voltage, and wherein the second electric contact group is disposed adjacent to the first electric contact group (1006, 1007, 1008).