mhurhangee/ep-ind-claims huggingface dataset:
A method of ultrasound imaging comprising: splitting a transmit beamformer comprising a phased array of ultrasound elements into a set of sub-apertures; sequentially transmitting a plurality of beamformed pulses along a focused line of sight, such that the beamformed pulses are transmitted along the focused line of sight from different sub-apertures at different transmit events; after each transmit event, receiving echoes with all the ultrasound elements of a full transmit aperture of the array of ultrasound elements, thereby obtaining a set of signals associated with each transmit event; characterized in that the method further comprises: applying receive beamforming time delays to each set of signals and calculating phase coherence weighting factors for each set of signals; employing the phase coherence weighting factors to generate a weighted beamformed signal for each set of signals; and adding the weighted beamformed signals to generate a line of an ultrasound image. splitting a transmit beamformer comprising a phased array of ultrasound elements into a set of sub-apertures; sequentially transmitting a plurality of beamformed pulses along a focused line of sight, such that the beamformed pulses are transmitted along the focused line of sight from different sub-apertures at different transmit events; after each transmit event, receiving echoes with all the ultrasound elements of a full transmit aperture of the array of ultrasound elements, thereby obtaining a set of signals associated with each transmit event; characterized in that the method further comprises: applying receive beamforming time delays to each set of signals and calculating phase coherence weighting factors for each set of signals; employing the phase coherence weighting factors to generate a weighted beamformed signal for each set of signals; and adding the weighted beamformed signals to generate a line of an ultrasound image. applying receive beamforming time delays to each set of signals and calculating phase coherence weighting factors for each set of signals; employing the phase coherence weighting factors to generate a weighted beamformed signal for each set of signals; and adding the weighted beamformed signals to generate a line of an ultrasound image.
An information transmitting device characterised by comprising: - a selection unit configured to: select multiple recipients of a short message to be transmitted using bulk messaging, and select a target transmission mode for the to-be-transmitted short message, wherein the target transmission modes include a disappear-after-reading transmission mode and a direct transmission mode; - a first determination unit configured to determine whether the target transmission mode for the to-be-transmitted short message is the disappear-after-reading transmission mode; - a second determination unit for determining, when the target transmission mode is the disappear-after-reading transmission mode, for a receiving device of each of the selected recipients, whether disappear-after-reading is currently supported; and - a processing unit for transmitting to the receiving device of each of the selected recipients the to-be-transmitted short message either in the disappear-after-reading transmission mode when disappear-after-reading is currently supported by the receiving device, or in the direct transmission mode when disappear-after-reading is not currently supported by the receiving device. - a selection unit configured to: select multiple recipients of a short message to be transmitted using bulk messaging, and select a target transmission mode for the to-be-transmitted short message, wherein the target transmission modes include a disappear-after-reading transmission mode and a direct transmission mode; select multiple recipients of a short message to be transmitted using bulk messaging, and select a target transmission mode for the to-be-transmitted short message, wherein the target transmission modes include a disappear-after-reading transmission mode and a direct transmission mode; - a first determination unit configured to determine whether the target transmission mode for the to-be-transmitted short message is the disappear-after-reading transmission mode; - a second determination unit for determining, when the target transmission mode is the disappear-after-reading transmission mode, for a receiving device of each of the selected recipients, whether disappear-after-reading is currently supported; and - a processing unit for transmitting to the receiving device of each of the selected recipients the to-be-transmitted short message either in the disappear-after-reading transmission mode when disappear-after-reading is currently supported by the receiving device, or in the direct transmission mode when disappear-after-reading is not currently supported by the receiving device.
An electric or hybrid sport car comprising a battery pack that incorporates at least a structural element of the vehicular frame and wherein said structural element can be removed from the vehicular frame only together with the battery pack, wherein said battery pack incorporates a pair of side members of the frame, designed to define a portion of the frame integrated in the floor of the car; and wherein a frame portion is housed in the floor and includes a front beam that extends from one side of the vehicle to the other between a guide seat and control pedals and a central beam, that extends from one side of the vehicle to the other, arranged immediately behind or below the seat; the sport car being characterized in that between said front beam and said central beams there is arranged a pair of front oblique side members that converge towards a central area (CTRN) of the central beam and diverge until intersecting said front beam, and wherein said pair of oblique side members incorporated in said battery pack are arranged behind said central beam and therefore are defined as oblique rear side members and thus said battery pack is therefore defined as rear battery pack.
A back-illuminated type semiconductor light-detecting element comprising: a silicon substrate comprised of a semiconductor of a first conductivity type, having a first principal surface and a second principal surface opposed to each other, and having a semiconductor region of a second conductivity type formed on the first principal surface side, wherein on the silicon substrate, an accumulation layer of the first conductivity type having a higher impurity concentration than the silicon substrate is formed on the second principal surface side and an irregular asperity is formed in at least a region opposed to the semiconductor region of the second conductivity type in the second principal surface, wherein the region opposed to the semiconductor region of the second conductivity type in the second principal surface of the silicon substrate is optically exposed, and wherein the second principal surface constitutes a light incident surface, light incident from the light incident surface travels in the silicon substrate. a silicon substrate comprised of a semiconductor of a first conductivity type, having a first principal surface and a second principal surface opposed to each other, and having a semiconductor region of a second conductivity type formed on the first principal surface side, wherein on the silicon substrate, an accumulation layer of the first conductivity type having a higher impurity concentration than the silicon substrate is formed on the second principal surface side and an irregular asperity is formed in at least a region opposed to the semiconductor region of the second conductivity type in the second principal surface, wherein the region opposed to the semiconductor region of the second conductivity type in the second principal surface of the silicon substrate is optically exposed, and wherein the second principal surface constitutes a light incident surface, light incident from the light incident surface travels in the silicon substrate.
A basic antimicrobial peptide comprising an amino acid sequence shown in SEQ ID NO: 1 or SEQ ID NO: 2 in SEQUENCE LISTINGS or with the same amino acid sequence as shown in SEQ ID NO: 1 or SEQ ID NO: 2 in SEQUENCE LISTING except that one to four amino acids are deleted, substituted, inserted and/or added, wherein the basic antimicrobial peptide is antimicrobial to cariogenic bacteria, periodontal disease bacteria and Candida and has an isoelectric point of not less than 12, for use in prophylaxis, amelioration and/or therapy of oral diseases.
A wearpart for earth engaging equipment comprising: a metal substrate formed for attachment to earth engaging equipment, the substrate having a surface; an expendable, thin sheet metal shell connected to the surface of the substrate by welding or brazing to form a mold with the substrate and define a cavity between the shell and the surface of the substrate; a hard particulate material within the cavity in close proximity to the surface and the shell; a metallic brazing material infiltrated in the particulate material when in molten form to contact the surface of the substrate and the shell and be contained by the shell and substrate, and characterized in that when solid the hard particulate material bonds to the substrate and the shell to form a wear resistant composite coating on the surface of the substrate. a metal substrate formed for attachment to earth engaging equipment, the substrate having a surface; an expendable, thin sheet metal shell connected to the surface of the substrate by welding or brazing to form a mold with the substrate and define a cavity between the shell and the surface of the substrate; a hard particulate material within the cavity in close proximity to the surface and the shell; a metallic brazing material infiltrated in the particulate material when in molten form to contact the surface of the substrate and the shell and be contained by the shell and substrate, and characterized in that when solid the hard particulate material bonds to the substrate and the shell to form a wear resistant composite coating on the surface of the substrate.
A process for manufacturing a composite optical material comprising a three dimensionally periodic arrangement of core particles in a matrix material, including the steps: (a) providing a sandwich structure of a precursor composite material held between first and second sandwiching layers, wherein the precursor composite material comprises a dispersion of core particles in matrix material; (b) for at least part of the sandwich structure, imposing a relative shear displacement between the first and second sandwiching layers using a curved surface of a curved support device to apply a radius of curvature to the sandwich structure, thereby providing a shear strain of at least 10% in the precursor composite material, wherein shear strain is defined as d / t c, where d is the modulus of the relative shear displacement between the first and second sandwiching layers and t c is the thickness of the precursor composite material before the shear displacement is applied to the first and second sandwiching layers; (c) after step (b), reducing the relative shear displacement between the first and second sandwiching layers in order to reduce the shear strain in the precursor composite material, wherein each performance of steps (b) and (c) is defined as a shear strain cycle; wherein the process includes repeating step (b) after step (c) so that the process uses at least 5 shear strain cycles, the repeating shear strain promoting ordering of the core particles to convert the precursor composite material to the composite optical material, and wherein the radius of curvature applied to the structure in step (b) is at least 10 μm. (a) providing a sandwich structure of a precursor composite material held between first and second sandwiching layers, wherein the precursor composite material comprises a dispersion of core particles in matrix material; (b) for at least part of the sandwich structure, imposing a relative shear displacement between the first and second sandwiching layers using a curved surface of a curved support device to apply a radius of curvature to the sandwich structure, thereby providing a shear strain of at least 10% in the precursor composite material, wherein shear strain is defined as d / t c, where d is the modulus of the relative shear displacement between the first and second sandwiching layers and t c is the thickness of the precursor composite material before the shear displacement is applied to the first and second sandwiching layers; (c) after step (b), reducing the relative shear displacement between the first and second sandwiching layers in order to reduce the shear strain in the precursor composite material, wherein each performance of steps (b) and (c) is defined as a shear strain cycle;
A method for accessing a television event, comprising: automatically displaying, without user input, an indicator that indicates the availability of the television event with a first television program displayed on a television; receiving a first user input while the indicator is displayed; displaying information relating to the television event in response to receipt of the first user input; receiving a second user input in response to the information displayed; determining if the television event is a current event; and displaying on the television the television event if the television event is determined to be that of a current event and the second user input is received. automatically displaying, without user input, an indicator that indicates the availability of the television event with a first television program displayed on a television; receiving a first user input while the indicator is displayed; displaying information relating to the television event in response to receipt of the first user input; receiving a second user input in response to the information displayed; determining if the television event is a current event; and displaying on the television the television event if the television event is determined to be that of a current event and the second user input is received.
A solid solution inducing layer for the weak epitaxial films of non-planar phthalocyanine characterized in that said solid solution inducing layer is formed by two co-deposited inducing layer molecules under certain substrate temperature, wherein said solid solution inducing layer thin film is well uniformed and the domains show a single-crystal-like structure; wherein said two inducing layer molecules are different kinds of molecules, and each of said two kinds of inducing layer molecules is represented by one of the following structural formulae: wherein Ar is a conjugated aromatic group or one of the following structures: and wherein R1 in Formula I and II is hydrogen atom or fluorine atom, and R2 is hydrogen atom or fluorine atom.
A method for frequency scaling, comprising: determining whether only a subset of multiple processors in a system on a chip, SoC, is active using a resource manager in the SoC, wherein the multiple processors,,,, share one or more resources and the subset is less than the number of multiple processors in the SoC, and each of the multiple processors is coupled to a respective dynamic clock and voltage scaling, DCVS, circuitry; and increasing a frequency of at least one processor in the subset of the multiple processors,,,, with the resource manager and respective DCVS circuitry coupled to the at least one processor if a determination is made by the resource manager that only the subset of the multiple processors is active and the remaining processors of the number of multiple processors outside the subset are idle, and the frequency of the at least one processor is below a frequency threshold, the increasing of the frequency configured for increasing an idle time of the shared one or more resources during at least one time frame; and placing the shared resources in an idle state by the resource manager. determining whether only a subset of multiple processors in a system on a chip, SoC, is active using a resource manager in the SoC, wherein the multiple processors,,,, share one or more resources and the subset is less than the number of multiple processors in the SoC, and each of the multiple processors is coupled to a respective dynamic clock and voltage scaling, DCVS, circuitry; and increasing a frequency of at least one processor in the subset of the multiple processors,,,, with the resource manager and respective DCVS circuitry coupled to the at least one processor if a determination is made by the resource manager that only the subset of the multiple processors is active and the remaining processors of the number of multiple processors outside the subset are idle, and the frequency of the at least one processor is below a frequency threshold, the increasing of the frequency configured for increasing an idle time of the shared one or more resources during at least one time frame; and placing the shared resources in an idle state by the resource manager.
A foldable display device, comprising: a flexible screen, wherein the flexible screen is configured for displaying an object, and comprises a first part and a second part, and a bendable third part between the first part and the second part; a housing, wherein the housing comprises a front side of the housing, and the first part is slidably supported on the front side of the housing; and the housing further comprises a holding tank extending in parallel with the front side of the housing; a sensor configured to detect a state of the third part; and a controller, wherein the controller is configured to control display of the first part, the second part and the third part according to the state, characterized in that the second part is slidable into the holding tank when the third part is bent, wherein the sensor is provided on the third part. a flexible screen, wherein the flexible screen is configured for displaying an object, and comprises a first part and a second part, and a bendable third part between the first part and the second part; a housing, wherein the housing comprises a front side of the housing, and the first part is slidably supported on the front side of the housing; and the housing further comprises a holding tank extending in parallel with the front side of the housing; a sensor configured to detect a state of the third part; and a controller, wherein the controller is configured to control display of the first part, the second part and the third part according to the state, characterized in that the second part is slidable into the holding tank when the third part is bent, wherein the sensor is provided on the third part.
An immune cell, comprising a heterologous polynucleotide encoding a binding protein that comprises a TCR β-chain comprising or consisting of the amino acid sequence of SEQ ID NO:29, and a TCR α-chain comprising or consisting of the amino acid sequence of SEQ ID NO:30.
A display device having a plurality of semiconductor light-emitting diodes (1050, 2050, 3050, 4050), wherein at least one of the semiconductor light-emitting diodes (1050, 2050, 3050, 4050) comprises: a first conductive electrode (1156, 2156, 3156, 4156) and a second conductive electrode (1152, 2152, 3152, 4152); a first conductivity type semiconductor layer (1155, 2155, 3155, 4155) on which the first conductive electrode is disposed (1156, 2156, 3156, 4156); a second conductivity type semiconductor layer (1153, 2153, 3153, 4153) that overlaps with the first conductivity type semiconductor layer (1155, 2155, 3155, 4155), on which the second conductive electrode (1152, 2152, 3152, 4152) is disposed; an active layer disposed between the first conductivity type semiconductor layer (1155, 2155, 3155, 4155) and the second conductivity type semiconductor layer (1153, 2153, 3153, 4153); an undoped semiconductor layer (1158, 2158, 3158, 4158) disposed on the second conductivity type semiconductor layer (1153, 2153, 3153, 4153); and a plurality of protrusions (1159, 2159, 3159, 4159) formed of a porous material allowing electropolishing and disposed on the undoped semiconductor layer (1158, 2158, 3158, 4158), characterised in that the undoped semiconductor layer (1158, 2158, 3158, 4158) comprises a first region and a second region surrounding the first region, wherein the first region has a larger surface roughness than the second region, and wherein the plurality of protrusions (1159, 2159, 3159, 4159) are disposed at the first region. a first conductive electrode (1156, 2156, 3156, 4156) and a second conductive electrode (1152, 2152, 3152, 4152); a first conductivity type semiconductor layer (1155, 2155, 3155, 4155) on which the first conductive electrode is disposed (1156, 2156, 3156, 4156); a second conductivity type semiconductor layer (1153, 2153, 3153, 4153) that overlaps with the first conductivity type semiconductor layer (1155, 2155, 3155, 4155), on which the second conductive electrode (1152, 2152, 3152, 4152) is disposed; an active layer disposed between the first conductivity type semiconductor layer (1155, 2155, 3155, 4155) and the second conductivity type semiconductor layer (1153, 2153, 3153, 4153); an undoped semiconductor layer (1158, 2158, 3158, 4158) disposed on the second conductivity type semiconductor layer (1153, 2153, 3153, 4153); and a plurality of protrusions (1159, 2159, 3159, 4159) formed of a porous material allowing electropolishing and disposed on the undoped semiconductor layer (1158, 2158, 3158, 4158), characterised in that the undoped semiconductor layer (1158, 2158, 3158, 4158) comprises a first region and a second region surrounding the first region, wherein the first region has a larger surface roughness than the second region, and wherein the plurality of protrusions (1159, 2159, 3159, 4159) are disposed at the first region.