mhurhangee/ep-ind-claims huggingface dataset:
A communication method performed by a terminal device, comprising: receiving a physical downlink control channel, PDCCH, order through a first demodulation reference signal, DM-RS, port, wherein the PDCCH order comprises a first synchronization signal block, SSB, index, and the PDCCH order is used to trigger non-contention based random access procedure on a first random access channel, RACH, resource corresponding to the first SSB index by using a first preamble; sending, to a network device (102, 104), based on the PDCCH order, a message 1, MSG1, on the first RACH resource by using the first preamble; determining, based on the first DM-RS port, to receive a message 2, MSG 2, through a second DM-RS port, wherein the second DM-RS port has a quasi co-location, QCL, relationship with the first DM-RS port; and receiving the MSG2 through the second DM-RS port. receiving a physical downlink control channel, PDCCH, order through a first demodulation reference signal, DM-RS, port, wherein the PDCCH order comprises a first synchronization signal block, SSB, index, and the PDCCH order is used to trigger non-contention based random access procedure on a first random access channel, RACH, resource corresponding to the first SSB index by using a first preamble; sending, to a network device (102, 104), based on the PDCCH order, a message 1, MSG1, on the first RACH resource by using the first preamble; determining, based on the first DM-RS port, to receive a message 2, MSG 2, through a second DM-RS port, wherein the second DM-RS port has a quasi co-location, QCL, relationship with the first DM-RS port; and receiving the MSG2 through the second DM-RS port.
Apparatus having a oscillating body on which a piezoelectric element is fastened by a solder connection, wherein the oscillating body has a T-shaped cross section having a first region with a first width and a second region with a second width, the second width being greater than the first width and the first region being arranged in the centre of the second region, wherein the piezoelectric element is arranged on a side of the second region facing away from the first region. wherein the oscillating body has a T-shaped cross section having a first region with a first width and a second region with a second width, the second width being greater than the first width and the first region being arranged in the centre of the second region, wherein the piezoelectric element is arranged on a side of the second region facing away from the first region.
A method for estimating a position of an emitter or reflector in a sample, comprising the steps of: - illuminating the sample with excitation light at at least one set of target coordinates (P i), wherein the excitation light has an intensity distribution in the form of a donut; - detecting fluorescence photons or reflected photons for the individual target coordinates (P i) of the set of target coordinates (P i); - determining a first uncalibrated estimated position of an emitter or reflector from the fluorescence photons or reflected photons detected for a first subset of the set of target coordinates (P i); - determining a second uncalibrated estimated position of the emitter or reflector from the fluorescence photons or reflected photons detected for a second subset of the set of target coordinates (P i); and - estimating a position of the emitter or reflector by comparing the first estimated position and the second estimated position, wherein the position estimated by comparing the first estimated position and the second estimated position is calibrated. - illuminating the sample with excitation light at at least one set of target coordinates (P i), wherein the excitation light has an intensity distribution in the form of a donut; - detecting fluorescence photons or reflected photons for the individual target coordinates (P i) of the set of target coordinates (P i); - determining a first uncalibrated estimated position of an emitter or reflector from the fluorescence photons or reflected photons detected for a first subset of the set of target coordinates (P i); - determining a second uncalibrated estimated position of the emitter or reflector from the fluorescence photons or reflected photons detected for a second subset of the set of target coordinates (P i); and - estimating a position of the emitter or reflector by comparing the first estimated position and the second estimated position, wherein the position estimated by comparing the first estimated position and the second estimated position is calibrated.
An electronic device comprising: a display panel comprising a display area (DP-DA ED-DA) and a non-display area (DP-NDA, ED-NDA) adjacent to the display area (DP-DA, ED-DA), the display area (DP-DA, ED-DA) comprising a first area (ED-DA1) and a second area (ED-DA2) between the first area (ED-DA1) and one side of the non-display area (ED-NDA); an input sensor disposed on the display panel and comprising a plurality of bridge elements (BP1, BP2) and a plurality of sensing patterns (SP1, SP2) connected to the plurality of bridge elements (BP1, BP2); and an antenna disposed on a same layer as the input sensor and overlapping the second area (ED-DA2), the antenna comprising: a first sub-antenna disposed on a same layer as the bridge elements and comprising a first portion (AN1-1) extending in a first direction and a second portion (AN1-2) extending from one end of the first portion (AN1-1) in a second direction crossing the first direction; and a second sub-antenna disposed on a same layer as the sensing patterns (SP1, SP2) and comprising a third portion (AN2-1) overlapping the first portion (AN1-1) and a fourth portion (AN2-2) extending from one end of the third portion (AN2-1) in a direction opposite to the second direction. a display panel comprising a display area (DP-DA ED-DA) and a non-display area (DP-NDA, ED-NDA) adjacent to the display area (DP-DA, ED-DA), the display area (DP-DA, ED-DA) comprising a first area (ED-DA1) and a second area (ED-DA2) between the first area (ED-DA1) and one side of the non-display area (ED-NDA); an input sensor disposed on the display panel and comprising a plurality of bridge elements (BP1, BP2) and a plurality of sensing patterns (SP1, SP2) connected to the plurality of bridge elements (BP1, BP2); and an antenna disposed on a same layer as the input sensor and overlapping the second area (ED-DA2), the antenna comprising: a first sub-antenna disposed on a same layer as the bridge elements and comprising a first portion (AN1-1) extending in a first direction and a second portion (AN1-2) extending from one end of the first portion (AN1-1) in a second direction crossing the first direction; and a second sub-antenna disposed on a same layer as the sensing patterns (SP1, SP2) and comprising a third portion (AN2-1) overlapping the first portion (AN1-1) and a fourth portion (AN2-2) extending from one end of the third portion (AN2-1) in a direction opposite to the second direction. a first sub-antenna disposed on a same layer as the bridge elements and comprising a first portion (AN1-1) extending in a first direction and a second portion (AN1-2) extending from one end of the first portion (AN1-1) in a second direction crossing the first direction; and a second sub-antenna disposed on a same layer as the sensing patterns (SP1, SP2) and comprising a third portion (AN2-1) overlapping the first portion (AN1-1) and a fourth portion (AN2-2) extending from one end of the third portion (AN2-1) in a direction opposite to the second direction.
An electromagnetic cooking device comprising: a heating cavity; at least one electromagnetic energy source configured to generate radiation in communication with the heating cavity via a supply cavity (38, 38a); a first port configured to emit the radiation into a first region of the heating cavity from the supply cavity (38, 38a); a second port configured to emit the radiation into a second region of the heating cavity from the supply cavity (38, 38a); a septum disposed along the supply cavity (38, 38a), wherein the septum is configured to adjust a proportion of the radiation emitted from the first port and the second port into the heating cavity; characterised by a cooking structure comprising ferrite material positioned in the first region of the heating cavity; and a controller configured to control an actuator adjusting a position of the septum thereby adjusting the proportion of the radiation absorbed by the cooking structure. a heating cavity; at least one electromagnetic energy source configured to generate radiation in communication with the heating cavity via a supply cavity (38, 38a); a first port configured to emit the radiation into a first region of the heating cavity from the supply cavity (38, 38a); a second port configured to emit the radiation into a second region of the heating cavity from the supply cavity (38, 38a); a septum disposed along the supply cavity (38, 38a), wherein the septum is configured to adjust a proportion of the radiation emitted from the first port and the second port into the heating cavity; characterised by a cooking structure comprising ferrite material positioned in the first region of the heating cavity; and a controller configured to control an actuator adjusting a position of the septum thereby adjusting the proportion of the radiation absorbed by the cooking structure.
A safety belt buckle supporting member, comprising an anchor body and a cable pull, wherein the anchor body has an intake, which is designed for its fastening to a body, and two cable pull grommets, which are spaced apart from each other, wherein the cable pull comprises a multi-wire pull cable (2.1) which is U-shaped and has an arc section, which forms a loop space (5.1) designed for the form-fit intake of a safety belt buckle, and wherein the cable pull has a first end section and a second end section, wherein the end sections (6a, 6b) pass through the cable pull grommets, characterized in that the first end section comprises a first zinc diecast nipple and the second end section comprises a second zinc diecast nipple, that the zinc diecast nipples (7a, 7b) each enclose a compressed pull cable end, and that the zinc diecast nipples (7a, 7b) project beyond the respectively associated cable pull grommets and form an axial form fit to the anchor body by means of an arc-section-sided annular surface which rests against a nipple-sided mating surface of the anchor body. comprising an anchor body and a cable pull, wherein the anchor body has an intake, which is designed for its fastening to a body, and two cable pull grommets, which are spaced apart from each other, wherein the cable pull comprises a multi-wire pull cable (2.1) which is U-shaped and has an arc section, which forms a loop space (5.1) designed for the form-fit intake of a safety belt buckle, and wherein the cable pull has a first end section and a second end section, wherein the end sections (6a, 6b) pass through the cable pull grommets, characterized in that the first end section comprises a first zinc diecast nipple and the second end section comprises a second zinc diecast nipple, that the zinc diecast nipples (7a, 7b) each enclose a compressed pull cable end, and that the zinc diecast nipples (7a, 7b) project beyond the respectively associated cable pull grommets and form an axial form fit to the anchor body by means of an arc-section-sided annular surface which rests against a nipple-sided mating surface of the anchor body.
A method of testing expression of biomarkers of sensitivity and/or resistance to an anthracycline in a tissue sample from a patient with a cancer, comprising: (a) determining a level of expression in the tissue sample of biomarkers of sensitivity selected from Table 1 or Table 3 or a complement thereof, wherein the biomarkers of sensitivity comprise HCLS1 (SEQ ID NO: 1), PTPRCAP (SEQ ID NO: 2), NEIL3 (SEQ ID NO: 3), PTPRC (SEQ ID NO: 4, 20, or 27), IFI16 (SEQ ID NO: 5), RHOH (SEQ ID NO: 6), SSBP2 (SEQ ID NO: 7), CD2 (SEQ ID NO 8), ITGA4 (SEQ ID NO: 9), ARHGAP15 (SEQ ID NO: 10), SRPK2 (SEQ ID NO: 11), CD99 (SEQ ID NO: 12 or 31), SRSF7 (SEQ ID NO: 13), CTCF (SEQ ID NO: 14), and SELPLG (SEQ ID NO: 15); and/or (b) determining a level of expression in the tissue sample of biomarkers of resistance selected from Table 2 or Table 4 or a complement thereof, wherein the biomarkers of resistance comprise SFN (SEQ ID NO: 105, 106, 108, 475, 480, or 491), ACTN1 (SEQ ID NO: 104 or 110), CTBP2 (SEQ ID NO: 107 or 119), FHL2 (SEQ ID NO: 109), CST6 (SEQ ID NO: 111), NR2F2 (SEQ ID NO: 112 or 116), REXO2 (SEQ ID NO: 113), ANXA2 (SEQ ID NO: 114, 117, or 126), TJP1 (SEQ ID NO: 115), IGF2BP2 (SEQ ID NO: 118), CCND1 (SEQ ID NO: 120), COTL1 (SEQ ID NO: 121), AMOTL2 (SEQ ID NO: 122), SDC4 (SEQ ID NO: 123), and LSR (SEQ ID NO: 124). (a) determining a level of expression in the tissue sample of biomarkers of sensitivity selected from Table 1 or Table 3 or a complement thereof, wherein the biomarkers of sensitivity comprise HCLS1 (SEQ ID NO: 1), PTPRCAP (SEQ ID NO: 2), NEIL3 (SEQ ID NO: 3), PTPRC (SEQ ID NO: 4, 20, or 27), IFI16 (SEQ ID NO: 5), RHOH (SEQ ID NO: 6), SSBP2 (SEQ ID NO: 7), CD2 (SEQ ID NO 8), ITGA4 (SEQ ID NO: 9), ARHGAP15 (SEQ ID NO: 10), SRPK2 (SEQ ID NO: 11), CD99 (SEQ ID NO: 12 or 31), SRSF7 (SEQ ID NO: 13), CTCF (SEQ ID NO: 14), and SELPLG (SEQ ID NO: 15); and/or (b) determining a level of expression in the tissue sample of biomarkers of resistance selected from Table 2 or Table 4 or a complement thereof, wherein the biomarkers of resistance comprise SFN (SEQ ID NO: 105, 106, 108, 475, 480, or 491), ACTN1 (SEQ ID NO: 104 or 110), CTBP2 (SEQ ID NO: 107 or 119), FHL2 (SEQ ID NO: 109), CST6 (SEQ ID NO: 111), NR2F2 (SEQ ID NO: 112 or 116), REXO2 (SEQ ID NO: 113), ANXA2 (SEQ ID NO: 114, 117, or 126), TJP1 (SEQ ID NO: 115), IGF2BP2 (SEQ ID NO: 118), CCND1 (SEQ ID NO: 120), COTL1 (SEQ ID NO: 121), AMOTL2 (SEQ ID NO: 122), SDC4 (SEQ ID NO: 123), and LSR (SEQ ID NO: 124).
A packed beverage that contains a flavoring and whey protein and which has an absorbance of 0.06 or less measured with an ultraviolet visible spectrophotometer at a wavelength of 660 nm and a ΔE value (color difference) of 3.5 or less measured with a colormeter, with pure water taken as a reference, which contains 0.9 ppm or more of the whey protein, and wherein the flavoring is a citrus fruit flavoring.
A wide gap semiconductor device comprising: a first conductive-type semiconductor layer; a second conductive-type semiconductor region (41, 42) that is provided on the first conductive-type semiconductor layer; a first electrode, of which a part is disposed on the second conductive-type semiconductor region (41, 42) and the other part is disposed on the first conductive-type semiconductor layer, forming a schottky junction with the first conductive-type semiconductor layer and disposed in an active region; an insulating layer (51, 52, 53) that is provided adjacent to the first electrode on the first conductive-type semiconductor layer and that extends to an end part of the wide gap semiconductor device; and a second electrode that is provided on the first conductive type semiconductor layer between the first electrode and the end part of the wide gap semiconductor device and that forms a schottky junction with the first conductive-type semiconductor layer and that is disposed outside the active region in an end part portion of the wide gap semiconductor device, the wide band gap semiconductor device further comprising a second conductive-type electric field alleviation region (21, 22), wherein at least a part of the second conductive-type electric field alleviation region (21, 22) is provided below and in contact with the second electrode. a first conductive-type semiconductor layer; a second conductive-type semiconductor region (41, 42) that is provided on the first conductive-type semiconductor layer; a first electrode, of which a part is disposed on the second conductive-type semiconductor region (41, 42) and the other part is disposed on the first conductive-type semiconductor layer, forming a schottky junction with the first conductive-type semiconductor layer and disposed in an active region; an insulating layer (51, 52, 53) that is provided adjacent to the first electrode on the first conductive-type semiconductor layer and that extends to an end part of the wide gap semiconductor device; and a second electrode that is provided on the first conductive type semiconductor layer between the first electrode and the end part of the wide gap semiconductor device and that forms a schottky junction with the first conductive-type semiconductor layer and that is disposed outside the active region in an end part portion of the wide gap semiconductor device, the wide band gap semiconductor device further comprising a second conductive-type electric field alleviation region (21, 22), wherein at least a part of the second conductive-type electric field alleviation region (21, 22) is provided below and in contact with the second electrode.
A nonwoven substrate comprising polyolefin fibers, a first surface and a second surface opposite the first surface; wherein the first surface comprises one or more printed portions, wherein at least one printed portion comprises a curable ink having a basis weight of from 1 gsm to 7 gsm, a surface tension of less than 30 as measured in dyne/cm at 25°C, a viscosity of 1-30 mPa.s as measured at 25°C and 60 rpm using ASTM D 2196-99, Test Method A and a specific gravity of 0.830-1.050 as measured at 25°C using ASTM D 891-95, Method A; and wherein the at least one printed portion comprises a Crosslinking Index of 330 or less as determined by the Crosslinking Index Test Method herein, wherein the curable ink was e-beam cured at a dose of from 0.5 MRad to 5 MRad, or was UV cured at a dose of from 25 mJ/cm 2 to 1000 mJ/cm 2. wherein the at least one printed portion comprises a Crosslinking Index of 330 or less as determined by the Crosslinking Index Test Method herein, wherein the curable ink was e-beam cured at a dose of from 0.5 MRad to 5 MRad, or was UV cured at a dose of from 25 mJ/cm 2 to 1000 mJ/cm 2.
An integrated ejector valve assembly comprising: a first valve assembly configured to control a flow of relatively lower pressure fluid from a first inlet port; a second valve assembly configured to control a flow of relatively higher pressure fluid from a second inlet port; a first actuation chamber configured to close said first valve assembly; a second actuation chamber configured to close said second valve assembly; a third actuation chamber configured to open said second valve assembly; and further comprises an ejector configured to use the flow of relatively higher pressure fluid to facilitate increasing the flow of relatively lower pressure fluid. a first valve assembly configured to control a flow of relatively lower pressure fluid from a first inlet port; a second valve assembly configured to control a flow of relatively higher pressure fluid from a second inlet port; a first actuation chamber configured to close said first valve assembly; a second actuation chamber configured to close said second valve assembly; a third actuation chamber configured to open said second valve assembly; and further comprises an ejector configured to use the flow of relatively higher pressure fluid to facilitate increasing the flow of relatively lower pressure fluid.
An ophthalmic docking system, comprising: an ophthalmic imaging system, comprising an optical coherence tomographic imaging system, configured to image a portion of an eye of a patient during a docking of a patient interface to the eye, and an image processor configured to determine a location and an orientation of the imaged portion of the eye by analyzing the image; and a guidance system, coupled to the ophthalmic imaging system, configured to guide the docking based on the determined location and orientation before the patient interface is docked to the eye, wherein the imaged portion of the eye comprises an imaged portion of a lens of the eye; and the image processor is configured to perform an image recognition process to recognize a scan-image of an anterior capsular layer of the lens and a scan-image of a posterior capsular layer of the lens in the image; and wherein the image processor is configured to determine an anterior maximum depth and an anterior minimum depth of the anterior capsular layer and a posterior maximum depth and a posterior minimum depth of the posterior capsular layer along a scanning variable, and to determine the location and the orientation of the lens from the anterior maximum depth, the anterior minimum depth, the posterior maximum depth, and posterior minimum depth an ophthalmic imaging system, comprising an optical coherence tomographic imaging system, configured to image a portion of an eye of a patient during a docking of a patient interface to the eye, and an image processor configured to determine a location and an orientation of the imaged portion of the eye by analyzing the image; and an optical coherence tomographic imaging system, configured to image a portion of an eye of a patient during a docking of a patient interface to the eye, and an image processor configured to determine a location and an orientation of the imaged portion of the eye by analyzing the image; and a guidance system, coupled to the ophthalmic imaging system, configured to guide the docking based on the determined location and orientation before the patient interface is docked to the eye, wherein the imaged portion of the eye comprises an imaged portion of a lens of the eye; and the image processor is configured to perform an image recognition process to recognize a scan-image of an anterior capsular layer of the lens and a scan-image of a posterior capsular layer of the lens in the image; and wherein the image processor is configured to determine an anterior maximum depth and an anterior minimum depth of the anterior capsular layer and a posterior maximum depth and a posterior minimum depth of the posterior capsular layer along a scanning variable, and to determine the location and the orientation of the lens from the anterior maximum depth, the anterior minimum depth, the posterior maximum depth, and posterior minimum depth
A process for the modification of the surface charge and the abatement of particulate matter contained in flue gases emitted during combustion processes, which comprises a passage of said flue gases through a reactor, in which said gases are brought into intimate contact with a water-miscible liquid polyol or with a mixture of said polyol with water, a passage of said flue gases exiting said reactor through a demister and subsequently through a further reactor, in which said flue gases are brought into intimate contact with water, wherein each one of said reactor and said further reactor is a Venturi scrubber or an inertial scrubber.