mhurhangee/ep-ind-claims huggingface dataset:
A composite resin material particle comprising: a resin material particle that is a material for producing a resin molding product; and a conductive nano-material, wherein a dispersion mixing layer, which is obtained by dispersedly mixing the conductive nano-material from the surface to the inside of the resin material particle, is formed over all of the surface or at least a part of the surface of the resin material particle, the conductive nano-material is dispersedly mixed within a resin material of the resin material particle in the dispersion mixing layer, the whole of the dispersion mixing layer forms a conductive layer, the mixed thickness of the dispersion mixing layer is from 0.1 μm to 10 μm, the conductive nano-material within the dispersion mixing layer has a shape with an outer diameter of 150 nm or smaller and a length of 500 nm or longer, the dispersion mixing layer has a covering rate of 60% or higher, and the dispersion mixing layer includes a conductive net in which the conductive nano-materials are distributed in a net-like form. a resin material particle that is a material for producing a resin molding product; and a conductive nano-material, wherein a dispersion mixing layer, which is obtained by dispersedly mixing the conductive nano-material from the surface to the inside of the resin material particle, is formed over all of the surface or at least a part of the surface of the resin material particle, the conductive nano-material is dispersedly mixed within a resin material of the resin material particle in the dispersion mixing layer, the whole of the dispersion mixing layer forms a conductive layer, the mixed thickness of the dispersion mixing layer is from 0.1 μm to 10 μm, the conductive nano-material within the dispersion mixing layer has a shape with an outer diameter of 150 nm or smaller and a length of 500 nm or longer, the dispersion mixing layer has a covering rate of 60% or higher, and the dispersion mixing layer includes a conductive net in which the conductive nano-materials are distributed in a net-like form.
One or more computer-readable media having instructions that, when executed, cause a network management, NM, apparatus to: receive a first report, including one or more measurements taken by a first user equipment, UE, in response to an event related to a handover of the first UE between a first radio access technology, RAT, and a second RAT different from the first RAT; receive a second report including one or more measurements taken by a second UE in response to an event related to a handover of the second UE between the first RAT and a third RAT different from the first RAT; and identify a hole in a coverage area of the first RAT based at least in part on the first and second reports. receive a first report, including one or more measurements taken by a first user equipment, UE, in response to an event related to a handover of the first UE between a first radio access technology, RAT, and a second RAT different from the first RAT; receive a second report including one or more measurements taken by a second UE in response to an event related to a handover of the second UE between the first RAT and a third RAT different from the first RAT; and identify a hole in a coverage area of the first RAT based at least in part on the first and second reports.
A medicated module attachable to a drug delivery device, comprising a housing comprising a distal end and a proximal end, wherein the proximal end comprises attachment means compatible to attachment means at the distal end of the drug delivery device, and a proximal needle cannula and a distal injection needle cannula adapted and arranged for establishing fluid communication with a secondary reservoir arranged within the housing in an axial direction between the distal needle cannula and the proximal needle cannula, the secondary reservoir comprising a single dose of a secondary medicament; a needle guard adapted and arranged to provide protection of the distal needle cannula and configured to move axially in proximal direction when pressed against an injection site; a selector operably connected to the secondary reservoir and to the needle guard, wherein the selector comprises at least a first and a second selectable position and is configured such that in the first position, the needle guard is prevented from moving axially with respect to the housing and the needle cannulae (3, 5) are not in fluid communication with the secondary reservoir; and such that in the second position movement of the needle guard in proximal direction with respect to the housing is allowed and selection of the second position causes the secondary medicament in the secondary reservoir to come into fluid communication with the distal needle cannula.
A computer-implemented medical method of transmitting identification information of a medical instrument, the method comprising the following steps: a) initial state image data is acquired, by a computer and from a camera, which describes an image of an instrument tray in an initial state; b) instrument state image data is acquired, by the computer and from the camera, which describes an image of an instrument and the instrument tray, the instrument being located on the instrument tray; c) instrument envelope data is determined based on the initial state image data and the instrument state image data, wherein the instrument envelope data describes the position of an envelope around the image representation of the instrument in the instrument state image data relative to a position of the instrument tray; d) instrument position data is determined based on the instrument envelope data, wherein the instrument position data describes the position of the instrument relative to the position of the instrument tray; e) instrument identity data is acquired and assigned to the instrument envelope data based on user input and based on the instrument position data; f) instrument usage data is determined based on the instrument envelope data, wherein the instrument usage data describes that the envelope around the image representation of the instrument has attained a predetermined position relative to the position of the instrument tray; and g) the computer is caused, based on the instrument usage data, to transmit the instrument identity data to a further computer which is part of a medical computing system. a) initial state image data is acquired, by a computer and from a camera, which describes an image of an instrument tray in an initial state; b) instrument state image data is acquired, by the computer and from the camera, which describes an image of an instrument and the instrument tray, the instrument being located on the instrument tray; c) instrument envelope data is determined based on the initial state image data and the instrument state image data, wherein the instrument envelope data describes the position of an envelope around the image representation of the instrument in the instrument state image data relative to a position of the instrument tray; d) instrument position data is determined based on the instrument envelope data, wherein the instrument position data describes the position of the instrument relative to the position of the instrument tray; e) instrument identity data is acquired and assigned to the instrument envelope data based on user input and based on the instrument position data; f) instrument usage data is determined based on the instrument envelope data, wherein the instrument usage data describes that the envelope around the image representation of the instrument has attained a predetermined position relative to the position of the instrument tray; and g) the computer is caused, based on the instrument usage data, to transmit the instrument identity data to a further computer which is part of a medical computing system.
A method of down-converting an electromagnetic signal, wherein the electromagnetic signal includes a DC offset that can be introduced at any of several points (8714, 8716, 8718) along a signal path for processing an RF input signal (8706, 8812) that is down-converted to a final baseband signal (8712, 8824), wherein the any of several points can occur prior to the down-conversion of the RF input signal or after the down-conversion of the RF input signal but prior to obtaining the final baseband signal, and wherein the DC offset can be reduced by spectral spreading and de-spreading, the method comprising the steps of: down-converting an RF input signal (8706, 8812) by under-sampling said RF input signal according to a coded control signal comprising a string of pulses, at least some of said pulses being modified according to a coded sequence signal; spectrally spreading the down-converted input signal to a down-converted spread spectrum signal; and spectrally de-spreading the down-converted spread spectrum signal to a final baseband signal to thereby reduce the DC offsets introduced at said any of several points before obtaining final baseband signal. down-converting an RF input signal (8706, 8812) by under-sampling said RF input signal according to a coded control signal comprising a string of pulses, at least some of said pulses being modified according to a coded sequence signal; spectrally spreading the down-converted input signal to a down-converted spread spectrum signal; and spectrally de-spreading the down-converted spread spectrum signal to a final baseband signal to thereby reduce the DC offsets introduced at said any of several points before obtaining final baseband signal.
An apparatus, for receiving signalling information in a cellular communication system comprising: one or more processors configured to schedule a first physical channel for a User Equipment; and a receiver configured to receive an indicator of channel conditions from the User Equipment (101, 103) using the first physical channel if the first physical channel is scheduled for the User Equipment, and to receive the indicator from the User Equipment using a second physical channel if the first physical channel is not scheduled for the User Equipment, wherein the one or more processors are configured to demultiplex a plurality of channels multiplexed together on to the first physical channel, the indicator being allocated to a first channel of the plurality of channels and uplink data being allocated to a second channel of the plurality of channels, and wherein the second channel employs a retransmission scheme for the uplink data. one or more processors configured to schedule a first physical channel for a User Equipment; and a receiver configured to receive an indicator of channel conditions from the User Equipment (101, 103) using the first physical channel if the first physical channel is scheduled for the User Equipment, and to receive the indicator from the User Equipment using a second physical channel if the first physical channel is not scheduled for the User Equipment, wherein the one or more processors are configured to demultiplex a plurality of channels multiplexed together on to the first physical channel, the indicator being allocated to a first channel of the plurality of channels and uplink data being allocated to a second channel of the plurality of channels, and wherein the second channel employs a retransmission scheme for the uplink data.
A weld training system (100; 200), comprising: - a computing device (106; 204) comprising a display device on a first side and a camera on a second side, the computing device (106; 204) configured to: - capture images with the camera; - process the captured images to identify a first simulation device as a simulation weld torch and a second simulation device as a simulation workpiece; and - display images of a simulated welding operation on the display device of the computing device (106; 204) based on analyzing the captured images to detect indicia of weld performance, the images of the simulated welding operation reflecting the indicia of weld performance, - a mounting device (108; 202) configured to hold the computing device (106; 204) to orient the camera of the computing device (106; 204) toward a simulation area, characterized in that the computing device (106; 204) is configured to recognize when the computing device (106; 204) is connected to the mounting device (108; 202) in that the mounting device triggers one or more inputs in the computing device (106, 204) via magnets and/or capacitively charged elements that are recognized by corresponding sensors in the computing device (106, 204). - a computing device (106; 204) comprising a display device on a first side and a camera on a second side, the computing device (106; 204) configured to: - capture images with the camera; - process the captured images to identify a first simulation device as a simulation weld torch and a second simulation device as a simulation workpiece; and - display images of a simulated welding operation on the display device of the computing device (106; 204) based on analyzing the captured images to detect indicia of weld performance, the images of the simulated welding operation reflecting the indicia of weld performance, - capture images with the camera; - process the captured images to identify a first simulation device as a simulation weld torch and a second simulation device as a simulation workpiece; and - display images of a simulated welding operation on the display device of the computing device (106; 204) based on analyzing the captured images to detect indicia of weld performance, the images of the simulated welding operation reflecting the indicia of weld performance, - a mounting device (108; 202) configured to hold the computing device (106; 204) to orient the camera of the computing device (106; 204) toward a simulation area,
A combination of (a) Midostaurin, or a pharmaceutically acceptable salt thereof, or a complex thereof, or a co-crystal thereof, or a solvate, including hydrate, thereof, and (b) a Mcl-1 inhibitor which is Compound B: (2 R)-2-{[(5 S a)-5-{3-chloro-2-methyl-4-[2-(4-methylpiperazin-1-yl)ethoxy]phenyl}-6-(4-fluorophenyl)thieno[2,3- d]pyrimidin-4-yl]oxy}-3-(2-{[2-(2-methoxyphenyl)pyrimidin-4-yl]methoxy}phenyl)propanoic acid, or Compound C: (2 R)-2-{[(5 S a)-5-{3-chloro-2-methyl-4-[2-(4-methylpiperazin-1-yl)ethoxy]phenyl}-6-(5-fluorofuran-2-yl)thieno[2,3- d]pyrimidin-4-yl]oxy}-3-(2-{[1-(2,2,2-trifluoroethyl)-1 H -pyrazol-5-yl]methoxy}phenyl)propanoic acid, or addition salts thereof with a pharmaceutically acceptable acid or base, suitable for simultaneous, sequential or separate use. (a) Midostaurin, or a pharmaceutically acceptable salt thereof, or a complex thereof, or a co-crystal thereof, or a solvate, including hydrate, thereof, and (b) a Mcl-1 inhibitor which is Compound B: (2 R)-2-{[(5 S a)-5-{3-chloro-2-methyl-4-[2-(4-methylpiperazin-1-yl)ethoxy]phenyl}-6-(4-fluorophenyl)thieno[2,3- d]pyrimidin-4-yl]oxy}-3-(2-{[2-(2-methoxyphenyl)pyrimidin-4-yl]methoxy}phenyl)propanoic acid, or Compound C: (2 R)-2-{[(5 S a)-5-{3-chloro-2-methyl-4-[2-(4-methylpiperazin-1-yl)ethoxy]phenyl}-6-(5-fluorofuran-2-yl)thieno[2,3- d]pyrimidin-4-yl]oxy}-3-(2-{[1-(2,2,2-trifluoroethyl)-1 H -pyrazol-5-yl]methoxy}phenyl)propanoic acid, or addition salts thereof with a pharmaceutically acceptable acid or base, suitable for simultaneous, sequential or separate use.
A computing device, comprising: a processing resource; and a memory resource storing machine-readable instructions to cause the processing resource to: proactively identify a line-of-sight, LOS, blockage of a network signal transmitted on a millimeter-wave link; and reroute network traffic from the millimeter-wave link to a wireless local area network, WLAN, transmission channel in response to identifying the LOS blockage of the network signal, characterised in that the processing resource is configured to identify the LOS blockage of the network signal of the millimeter-wave link based on a difference between a first signal-to-noise ratio, SNR, of the millimeter-wave link and a second SNR of the WLAN transmission channel. a processing resource; and a memory resource storing machine-readable instructions to cause the processing resource to: proactively identify a line-of-sight, LOS, blockage of a network signal transmitted on a millimeter-wave link; and reroute network traffic from the millimeter-wave link to a wireless local area network, WLAN, transmission channel in response to identifying the LOS blockage of the network signal, characterised in that the processing resource is configured to identify the LOS blockage of the network signal of the millimeter-wave link based on a difference between a first signal-to-noise ratio, SNR, of the millimeter-wave link and a second SNR of the WLAN transmission channel. proactively identify a line-of-sight, LOS, blockage of a network signal transmitted on a millimeter-wave link; and reroute network traffic from the millimeter-wave link to a wireless local area network, WLAN, transmission channel in response to identifying the LOS blockage of the network signal, characterised in that the processing resource is configured to identify the LOS blockage of the network signal of the millimeter-wave link based on a difference between a first signal-to-noise ratio, SNR, of the millimeter-wave link and a second SNR of the WLAN transmission channel.
A system for manipulating a beam of electromagnetic radiation, said system comprising: a first acousto-optic deflector; a second acousto-optic deflector positioned downstream of said first acousto-optic deflector and being separated from said first acousto-optic deflector by an effective optical separation (d 1); a driver for providing acoustic waves in said first and second acousto-optic deflectors, characterised in that said acoustic waves are chirped at different ramp rates to account for said effective optical separation (d 1) between said first and second acousto-optic deflectors; wherein the different ramp rates are set so as to allow for the change in wavefront curvature in the beam of electromagnetic radiation between the first acousto-optic deflector and the second acousto-optic deflector. a first acousto-optic deflector; a second acousto-optic deflector positioned downstream of said first acousto-optic deflector and being separated from said first acousto-optic deflector by an effective optical separation (d 1); a driver for providing acoustic waves in said first and second acousto-optic deflectors, characterised in that said acoustic waves are chirped at different ramp rates to account for said effective optical separation (d 1) between said first and second acousto-optic deflectors; wherein the different ramp rates are set so as to allow for the change in wavefront curvature in the beam of electromagnetic radiation between the first acousto-optic deflector and the second acousto-optic deflector.
A system for carrying out a non-invasive treatment for reducing fats through cold comprising: - a central unit comprising a control device; - a cooling fluid; - a cooling device, the cooling device being configured to cool the cooling fluid to a cooling temperature lower than 0°C, the control device controlling the cooling device; - at least one applicator designed to carry out a localized non-invasive treatment of fats through cold, the applicator comprising a cavity defined by a wall, said cavity being designed to receive a localized wad or mass of fat of a patient; - a suction duct which opens into the cavity, and is arranged to suck the wad into said cavity; - a transport device which is configured to convey the cooling fluid cooled by the cooling device from the central unit to the interior of the applicator, the wall being adapted to be indirectly cooled by the cooling device, and in that the cooling device is arranged at a distance from the applicator, characterized in that the cooling fluid has a solidification temperature equal to or higher than -13°C. - a central unit comprising a control device; - a cooling fluid; - a cooling device, the cooling device being configured to cool the cooling fluid to a cooling temperature lower than 0°C, the control device controlling the cooling device; - at least one applicator designed to carry out a localized non-invasive treatment of fats through cold, the applicator comprising a cavity defined by a wall, said cavity being designed to receive a localized wad or mass of fat of a patient; - a suction duct which opens into the cavity, and is arranged to suck the wad into said cavity; - a transport device which is configured to convey the cooling fluid cooled by the cooling device from the central unit to the interior of the applicator, the wall being adapted to be indirectly cooled by the cooling device, and in that the cooling device is arranged at a distance from the applicator, characterized in that the cooling fluid has a solidification temperature equal to or higher than -13°C.
An imaging system for imaging samples (54; 80; 80i) and comprising: a light source to irradiate a sample (54; 80; 80i) on an irradiation axis; a first image detector mounted to receive light from the irradiated sample (54; 80; 80i) on an optical axis oblique to the irradiation axis; a stage to support the sample (54; 80; 80i) in a specimen plane and comprising biological cells and/or tissue; a second image detector disposed on an imaging axis, wherein the first and second image detectors (52, 56) are disposed on opposite sides of the specimen plane from one another; a drive mechanism configured to move the stage and the imaging axis relative to one another; and a processor configured to (a) receive an image of the sample (54; 80; 80i) detected by the first image detector, (b) determine a physical location for a region of contrast produced by the sample (54; 80; 80i) within the image, and (c) send a signal to the drive mechanism based on the physical location, to dispose at least part of the sample (54; 80; 80i) producing the region of contrast in a field of view of the second image detector. a light source to irradiate a sample (54; 80; 80i) on an irradiation axis; a first image detector mounted to receive light from the irradiated sample (54; 80; 80i) on an optical axis oblique to the irradiation axis; a stage to support the sample (54; 80; 80i) in a specimen plane and comprising biological cells and/or tissue; a second image detector disposed on an imaging axis, wherein the first and second image detectors (52, 56) are disposed on opposite sides of the specimen plane from one another; a drive mechanism configured to move the stage and the imaging axis relative to one another; and a processor configured to (a) receive an image of the sample (54; 80; 80i) detected by the first image detector, (b) determine a physical location for a region of contrast produced by the sample (54; 80; 80i) within the image, and (c) send a signal to the drive mechanism based on the physical location, to dispose at least part of the sample (54; 80; 80i) producing the region of contrast in a field of view of the second image detector. (a) receive an image of the sample (54; 80; 80i) detected by the first image detector, (b) determine a physical location for a region of contrast produced by the sample (54; 80; 80i) within the image, and (c) send a signal to the drive mechanism based on the physical location, to dispose at least part of the sample (54; 80; 80i) producing the region of contrast in a field of view of the second image detector.