mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: determining a transmission scheme for transmitting a first channel; and transmitting an indication of the transmission scheme to a base unit, wherein the indication is based on the transmission scheme; characterised in that the transmission scheme is selected from a group comprising: transmitting a second channel and performing rate matching of the second channel around the first channel; transmitting a second channel and puncturing the second channel by the first channel; and transmitting a second channel and puncturing the second channel by resource elements carrying the indication without transmitting the first channel, wherein the first channel is an uplink control information, UCI, channel and the second channel is a physical uplink shared channel, PUSCH. determining a transmission scheme for transmitting a first channel; and transmitting an indication of the transmission scheme to a base unit, wherein the indication is based on the transmission scheme; characterised in that the transmission scheme is selected from a group comprising: transmitting a second channel and performing rate matching of the second channel around the first channel; transmitting a second channel and puncturing the second channel by the first channel; and transmitting a second channel and puncturing the second channel by resource elements carrying the indication without transmitting the first channel, transmitting a second channel and performing rate matching of the second channel around the first channel; transmitting a second channel and puncturing the second channel by the first channel; and transmitting a second channel and puncturing the second channel by resource elements carrying the indication without transmitting the first channel, wherein the first channel is an uplink control information, UCI, channel and the second channel is a physical uplink shared channel, PUSCH.
Method for active flow control of a fluid flow that flows along a flow surface, the method comprising: generating a first local velocity field in the fluid flow by introducing a first vortex structure into the fluid flow by means of a first flow control actuator coupled to a first actuation site of the flow surface; introducing a second vortex structure into the first local velocity field by means of a second flow control actuator coupled to a second actuation site of the flow surface located downstream of the first actuation site when a head vortex of the first vortex structure has propagated with the fluid flow downstream the second actuation site and the first local velocity field is present upstream and downstream of the second actuation site, so that the second vortex structure travels or propagates downstream following the first vortex structure; and introducing a third vortex structure into the first local velocity field by means of a third flow control actuator coupled to a third actuation site of the flow surface located downstream of the second actuation site when the head vortex of the first vortex structure has propagated with the fluid flow downstream the third actuation site, wherein the third vortex structure is introduced into the first local velocity field after a second local velocity field generated by introducing the second vortex structure has propagated downstream the third actuation site or before a head vortex of the second vortex structure has reached the third actuation site. generating a first local velocity field in the fluid flow by introducing a first vortex structure into the fluid flow by means of a first flow control actuator coupled to a first actuation site of the flow surface; introducing a second vortex structure into the first local velocity field by means of a second flow control actuator coupled to a second actuation site of the flow surface located downstream of the first actuation site when a head vortex of the first vortex structure has propagated with the fluid flow downstream the second actuation site and the first local velocity field is present upstream and downstream of the second actuation site, so that the second vortex structure travels or propagates downstream following the first vortex structure; and introducing a third vortex structure into the first local velocity field by means of a third flow control actuator coupled to a third actuation site of the flow surface located downstream of the second actuation site when the head vortex of the first vortex structure has propagated with the fluid flow downstream the third actuation site, wherein the third vortex structure is introduced into the first local velocity field after a second local velocity field generated by introducing the second vortex structure has propagated downstream the third actuation site or before a head vortex of the second vortex structure has reached the third actuation site.
A method for localization of a vehicle, the method comprising: transmitting a first radar signal having a first frequency into a subsurface region under a vehicle; acquiring a first set of surface penetrating radar images of a first subsurface region based on the first radar signal; transmitting a second radar signal having a second frequency into the subsurface region, the second frequency being greater than the first frequency; acquiring a second set of SPR images of a second subsurface region at least partially overlapping the first subsurface region based on the second radar signal; and characterized by: determining a first set of location data of the vehicle based on the first set of SPR images; and determining a second set of location data of the vehicle based on the first set of location data and based on the second set of SPR images, wherein the second set of location data are at a greater resolution than the first set of location data. transmitting a first radar signal having a first frequency into a subsurface region under a vehicle; acquiring a first set of surface penetrating radar images of a first subsurface region based on the first radar signal; transmitting a second radar signal having a second frequency into the subsurface region, the second frequency being greater than the first frequency; acquiring a second set of SPR images of a second subsurface region at least partially overlapping the first subsurface region based on the second radar signal; and characterized by: determining a first set of location data of the vehicle based on the first set of SPR images; and determining a second set of location data of the vehicle based on the first set of location data and based on the second set of SPR images, wherein the second set of location data are at a greater resolution than the first set of location data. determining a first set of location data of the vehicle based on the first set of SPR images; and determining a second set of location data of the vehicle based on the first set of location data and based on the second set of SPR images, wherein the second set of location data are at a greater resolution than the first set of location data.
A formation porosity logging method, comprising: obtaining complex dielectric constant measurements with a dielectric tool; deriving a complex dielectric constant of formation water from the measured complex dielectric constant measurements; wherein deriving the complex dielectric constant of formation water comprises determining a loss tangent of formation water as a function of water dielectric loss, water dielectric constant and water resistivity, wherein the loss tangent of formation water is a ratio of an imaginary part of the complex dielectric constant over a real part of the complex dielectric constant; and determining a formation porosity, based at least in part on the measured complex dielectric constant and the derived complex dielectric constant of formation water. obtaining complex dielectric constant measurements with a dielectric tool; deriving a complex dielectric constant of formation water from the measured complex dielectric constant measurements; wherein deriving the complex dielectric constant of formation water comprises determining a loss tangent of formation water as a function of water dielectric loss, water dielectric constant and water resistivity, wherein the loss tangent of formation water is a ratio of an imaginary part of the complex dielectric constant over a real part of the complex dielectric constant; and determining a formation porosity, based at least in part on the measured complex dielectric constant and the derived complex dielectric constant of formation water.
A method for controling access network stored content, wherein the method is performed in a network storage system used in a message service, wherein the method comprises: receiving, by the network storage system, a creating request for creating a shared folder sent by a first user; storing, by the network storage system, an access rule of the shared folder to permit a second user to write in the shared folder, wherein the access rule of the shared folder is set by the first user; receiving, by the network storage system, an upload request from the second user to upload a media content to the shared folder; permiting, by the network storage system, uploading the media content to the shared folder according to the access rule after succeeded authentication; storing, by the network storage system, the media content shared by the second user in the shared folder; receiving, by the network storage system, an obtain request for obtaining the media content in the shared folder sent by the first user; providing, by the network storage system, the media content to the first user. receiving, by the network storage system, a creating request for creating a shared folder sent by a first user; storing, by the network storage system, an access rule of the shared folder to permit a second user to write in the shared folder, wherein the access rule of the shared folder is set by the first user; receiving, by the network storage system, an upload request from the second user to upload a media content to the shared folder; permiting, by the network storage system, uploading the media content to the shared folder according to the access rule after succeeded authentication; storing, by the network storage system, the media content shared by the second user in the shared folder; receiving, by the network storage system, an obtain request for obtaining the media content in the shared folder sent by the first user; providing, by the network storage system, the media content to the first user.
A translucent rare-earth gallium garnet ceramic represented by a general formula R 3 Ga 5 O 12 where R is at least one element selected from the group consisting of Y and rare-earth elements having an atomic number of 57 to 71, characterized by containing, as a sintering aid, 5 mass ppm or more and 500 mass ppm or less of Ge calculated as metal, and 20 mass ppm or more and 250 mass ppm or less of Al calculated as metal.
Manifold (3,4) of a heat exchanger comprising a collector plate and a cover, said collector plate constituting a first part and said cover constituting a second part of an assembly of two parts crimped together by folding at least one portion of peripheral edge of said first part over said second part, characterized in that said first part has a hinge-forming region facilitating the folding of said portion of peripheral edge, said portion of peripheral edge having a thinned portion relative to another portion of said first part intended to offer a resistance to the pressure of a fluid.
Internal combustion engine comprising a crankcase which has a water jacket and which conducts coolant, at least one coolant-receiving inlet rail which is arranged upstream of the crankcase in a flow direction of the coolant and which communicates with said crankcase, or at least one coolant-receiving inlet rail which is a constituent part of the water jacket, at least one coolant-conducting cylinder head, and at least one coolant-receiving outlet rail which is arranged downstream of the cylinder head in a flow direction of the coolant and which communicates with said cylinder head, characterized in that the inlet rail is configured so as to communicate both with the crankcase and with the cylinder head, in that the inlet rail is of conical design, and in that the water jacket has a claw-like water jacket guide. a crankcase which has a water jacket and which conducts coolant, at least one coolant-receiving inlet rail which is arranged upstream of the crankcase in a flow direction of the coolant and which communicates with said crankcase, or at least one coolant-receiving inlet rail which is a constituent part of the water jacket, at least one coolant-conducting cylinder head, and at least one coolant-receiving outlet rail which is arranged downstream of the cylinder head in a flow direction of the coolant and which communicates with said cylinder head, characterized in that the inlet rail is configured so as to communicate both with the crankcase and with the cylinder head, in that the inlet rail is of conical design, and in that the water jacket has a claw-like water jacket guide.
An electronic device comprising: a lens; an optical filter asymmetric to an optical axis of the lens, the optical filter having an opening asymmetrically positioned based on the optical axis of the lens and configured to transmit visible light and block at least one type of non-visible light; and an image sensor including a visible light image sensor and a non-visible light image sensor, the visible light image sensor configured to sense the visible light and the non-visible light image sensor configured to sense the at least one type of non-visible light and characterized in that: the visible light image sensor obtains a visible light image from the visible light passing the optical filter including the opening; the non-visible light image sensor obtains a non-visible light image from the non-visible light passing the opening of the optical filter; and distance information of an object is obtained from a position difference (Δx) between the visible light image and the non-visible light image. a lens; an optical filter asymmetric to an optical axis of the lens, the optical filter having an opening asymmetrically positioned based on the optical axis of the lens and configured to transmit visible light and block at least one type of non-visible light; and an image sensor including a visible light image sensor and a non-visible light image sensor, the visible light image sensor configured to sense the visible light and the non-visible light image sensor configured to sense the at least one type of non-visible light and characterized in that: the visible light image sensor obtains a visible light image from the visible light passing the optical filter including the opening; the non-visible light image sensor obtains a non-visible light image from the non-visible light passing the opening of the optical filter; and distance information of an object is obtained from a position difference (Δx) between the visible light image and the non-visible light image. the visible light image sensor obtains a visible light image from the visible light passing the optical filter including the opening; the non-visible light image sensor obtains a non-visible light image from the non-visible light passing the opening of the optical filter; and distance information of an object is obtained from a position difference (Δx) between the visible light image and the non-visible light image.
A rotary machine, comprising: a rotor comprising a plurality of blades; and a segmented stator comprising a plurality of stator segments (74,76) arranged circumferentially about the plurality of blades, wherein each adjacent pair of first and second segments (74,76) of the plurality of stator segments includes a recess extending circumferentially across an intermediate joint (70,72) between the first and second segments, the recess comprising a first recess portion disposed in the first segment and a second recess portion disposed in the second segment, and each recess includes at least one eccentricity control insert comprising a first insert portion disposed in the first recess portion and a second insert portion disposed in the second recess portion, wherein the at least one eccentricity control insert comprises an arcuate shaped body having an abradable portion disposed over a base portion, wherein an arc length of the at least one eccentricity control insert extends less than approximately 60 degrees in a circumferential direction about a rotational axis of the rotor. a rotor comprising a plurality of blades; and a segmented stator comprising a plurality of stator segments (74,76) arranged circumferentially about the plurality of blades, wherein each adjacent pair of first and second segments (74,76) of the plurality of stator segments includes a recess extending circumferentially across an intermediate joint (70,72) between the first and second segments, the recess comprising a first recess portion disposed in the first segment and a second recess portion disposed in the second segment, and each recess includes at least one eccentricity control insert comprising a first insert portion disposed in the first recess portion and a second insert portion disposed in the second recess portion, wherein the at least one eccentricity control insert comprises an arcuate shaped body having an abradable portion disposed over a base portion, wherein an arc length of the at least one eccentricity control insert extends less than approximately 60 degrees in a circumferential direction about a rotational axis of the rotor.
A method of producing a spray-dried, hydrous, kaolin clay, comprising: mixing a hydrous kaolin clay with water, an ammonium polyacrylate or polyacrylic acid, ammonium hydroxide, and a propanolamine selected from the group consisting of 2-amino-2-methyl-1-propanol, 2-methylamino-2-methyl-1-propanol, 1-amino-2-propanol, or mixtures thereof, to produce a viscosity stable dispersed slurry; and spray drying the slurry to produce the spray-dried, hydrous, kaolin clay. mixing a hydrous kaolin clay with water, an ammonium polyacrylate or polyacrylic acid, ammonium hydroxide, and a propanolamine selected from the group consisting of 2-amino-2-methyl-1-propanol, 2-methylamino-2-methyl-1-propanol, 1-amino-2-propanol, or mixtures thereof, to produce a viscosity stable dispersed slurry; and spray drying the slurry to produce the spray-dried, hydrous, kaolin clay.
A computer-implemented method for guiding the acquisition of ultrasound data within a 3D field of view, the method comprising: obtaining initial 2D B-mode ultrasound data of a cranial region of a subject from a reduced field of view at a first imaging location within the 3D field of view; determining whether a vessel of interest is located within the 3D field of view from said first imaging location based on the initial 2D B-mode ultrasound data; and if the vessel of interest is not located within the 3D field of view: generating a guidance instruction based on the initial 2D B-mode ultrasound data, wherein the guidance instruction is adapted to indicate a second imaging location to obtain further ultrasound data, wherein the second imaging location is a different location within the 3D field of view from the first imaging location; and if the vessel of interest is located within the 3D field of view: obtaining 3D Doppler ultrasound data of the cranial region from the 3D field of view. obtaining initial 2D B-mode ultrasound data of a cranial region of a subject from a reduced field of view at a first imaging location within the 3D field of view; determining whether a vessel of interest is located within the 3D field of view from said first imaging location based on the initial 2D B-mode ultrasound data; and if the vessel of interest is not located within the 3D field of view: generating a guidance instruction based on the initial 2D B-mode ultrasound data, wherein the guidance instruction is adapted to indicate a second imaging location to obtain further ultrasound data, wherein the second imaging location is a different location within the 3D field of view from the first imaging location; and if the vessel of interest is located within the 3D field of view: obtaining 3D Doppler ultrasound data of the cranial region from the 3D field of view.
A method for the additive manufacturing of metallic shaped bodies by means of application welding with use of a laser or an electric arc, shaping welding or US welding, wherein a shaped body is produced in an installation space by melting at least one sheet-like or wire-like starting material by supplying energy, said starting material being fed by means of a material feed device, and by depositing the molten starting material in individual successive layers, characterised in that the process heat created during the deposition is dissipated by means of a pourable cooling granular material at least partially surrounding and contacting the already finished parts of the shaped body.
A base station device for receiving channel state information, the base station device comprising: a sending unit, configured to send second signaling to a user equipment, where the second signaling is used to indicate a preset rule; and a receiving unit, configured to receive at least one piece of aperiodic channel state information CSI sent by the user equipment, wherein the at least one piece of aperiodic CSI corresponds to an aperiodic CSI measurement result on the first reference subframe, wherein the aperiodic CSI measurement result on the first reference subframe is an aperiodic CSI measurement result of a first downlink subframe set, and the first reference subframe is a subframe in the first downlink subframe set; wherein the first reference subframe is a subframe determined by the user equipment according to the preset rule in the first downlink subframe set, and the preset rule comprises: the first reference subframe is a subframe whose subframe index is the smallest in the first downlink subframe set; wherein the sending unit is further configured to send aperiodic CSI triggering signaling to the user equipment on a first downlink subframe, wherein the aperiodic CSI triggering signaling is used to instruct the user equipment to send the aperiodic CSI measurement result of the first downlink subframe set, wherein a subframe between the first downlink subframe and a second subframe does not comprise any subframe in the first downlink subframe set, the second subframe is the fourth subframe prior to a first uplink subframe, and the first uplink subframe is a subframe bearing one piece of aperiodic CSI among the at least one piece of aperiodic CSI. a sending unit, configured to send second signaling to a user equipment, where the second signaling is used to indicate a preset rule; and a receiving unit, configured to receive at least one piece of aperiodic channel state information CSI sent by the user equipment, wherein the at least one piece of aperiodic CSI corresponds to an aperiodic CSI measurement result on the first reference subframe, wherein the aperiodic CSI measurement result on the first reference subframe is an aperiodic CSI measurement result of a first downlink subframe set, and the first reference subframe is a subframe in the first downlink subframe set;