mhurhangee/patent-ind-claim-en huggingface dataset:
An image processing apparatus comprising: at least one processor , wherein the processor is configured to execute region-of-interest image generation processing of generating a region-of-interest image from a projection image, which is obtained at an irradiation position closest to a position facing a detection surface of a radiation detector, among a series of projection images obtained by irradiating a breast with radiations and imaging the breast, and shape type determination processing of determining a type of a shape of a calcification image included in the region-of-interest image generated by the region-of-interest image generation processing. at least one processor , wherein the processor is configured to execute region-of-interest image generation processing of generating a region-of-interest image from a projection image, which is obtained at an irradiation position closest to a position facing a detection surface of a radiation detector, among a series of projection images obtained by irradiating a breast with radiations and imaging the breast, and shape type determination processing of determining a type of a shape of a calcification image included in the region-of-interest image generated by the region-of-interest image generation processing. region-of-interest image generation processing of generating a region-of-interest image from a projection image, which is obtained at an irradiation position closest to a position facing a detection surface of a radiation detector, among a series of projection images obtained by irradiating a breast with radiations and imaging the breast, and shape type determination processing of determining a type of a shape of a calcification image included in the region-of-interest image generated by the region-of-interest image generation processing.
Equipment for the semi-continuous direct chill (DC) casting of sheet ingot or slabs of different dimensions, in particular for rolling purposes, including a mould frame with a pair of facing long side walls and a pair of facing short end walls , the walls defining an upwardly open inlet for the supply of metal and a downwardly facing outlet provided with a starter block on a movable support which prior to each casting closes the opening and including means for changing the mould dimensions where at least one end wall can be displaced to enable casting of ingots with different sizes, the equipment further including means for indirect and direct cooling of the metal during casting, wherein the equipment, in addition to the means for changing the mould dimensions, includes means for flexing the long side walls of the mould, thereby enabling adjustment of a flexible middle part of said long side walls inwardly or outwardly to adapt to the desired sheet ingot size, the desired casting speed and/or alloy composition, wherein a stiffening arrangement is provided in conjunction with the flexing long side walls enabling adjustment of the stiffness of the middle part of the long side walls in relation to the size of the dimension of the ingot to be cast, and wherein the stiffening arrangement consists of a flexible long side wall with an integrated stiffening part stretching over a length of the middle part of the long side wall on the outside of the wall and having an elevated shape from its ends towards the middle. wherein the equipment, in addition to the means for changing the mould dimensions, includes means for flexing the long side walls of the mould, thereby enabling adjustment of a flexible middle part of said long side walls inwardly or outwardly to adapt to the desired sheet ingot size, the desired casting speed and/or alloy composition, wherein a stiffening arrangement is provided in conjunction with the flexing long side walls enabling adjustment of the stiffness of the middle part of the long side walls in relation to the size of the dimension of the ingot to be cast, and wherein the stiffening arrangement consists of a flexible long side wall with an integrated stiffening part stretching over a length of the middle part of the long side wall on the outside of the wall and having an elevated shape from its ends towards the middle.
A cell culture apparatus , comprising: a connected culture container comprising n number of units, where each of the n number of the units is constituted of m number of culture chambers and one or more communication-channels , the m number of the culture chambers each having a cell-holding portion that holds seeded cells, the m number of the culture chambers storing liquid culture media, the m number of the culture chambers being disposed in parallel along a first direction, the communication-channels communicating the m number of the culture chambers with each other, wherein the n number of units disposed in parallel along a second direction that is a different from the first direction, wherein m is an integer of two or more, and n is an integer of two or more, and a plurality of pneumatic pipes communicating same-row-disposed culture chambers that are disposed on a same row along the second direction with each other in the connected culture container , the pneumatic pipes being configured to pressurize the same-row-disposed culture chambers at the same time or open the same-row-disposed culture chambers to atmospheric pressure at the same time, the pneumatic pipes being configured to send the liquid culture media to the m number of the culture chambers through the communication-channels using pressure differences in the m number of the culture chambers . a connected culture container comprising n number of units, where each of the n number of the units is constituted of m number of culture chambers and one or more communication-channels , the m number of the culture chambers each having a cell-holding portion that holds seeded cells, the m number of the culture chambers storing liquid culture media, the m number of the culture chambers being disposed in parallel along a first direction, the communication-channels communicating the m number of the culture chambers with each other, wherein the n number of units disposed in parallel along a second direction that is a different from the first direction, wherein m is an integer of two or more, and n is an integer of two or more, and a plurality of pneumatic pipes communicating same-row-disposed culture chambers that are disposed on a same row along the second direction with each other in the connected culture container , the pneumatic pipes being configured to pressurize the same-row-disposed culture chambers at the same time or open the same-row-disposed culture chambers to atmospheric pressure at the same time, the pneumatic pipes being configured to send the liquid culture media to the m number of the culture chambers through the communication-channels using pressure differences in the m number of the culture chambers .
Sliding block for a rail system for a vehicle seat, the rail system comprising a lower rail , an upper rail which is movable along a longitudinal axis of the lower rail and at least one rolling body cage which is coupled to the upper rail and via rolling bodies to the lower rail , characterized in that the sliding block comprises two sliding block beams parallel to one another, the upper rail being movably mounted thereon, at least one sliding block crossmember connecting the two sliding block beams to each other in the manner of a ladder, and end stops for the at least one rolling body cage , wherein each end stop for a rolling body cage protrudes outwardly from a sliding block beam .
A power amplifier network comprising: a first path comprising a first power amplifier ; a second path comprising a second power amplifier ; a common input path to both the first path and the second path, wherein the common input path comprises a common pre-distortion processing circuit ; a feedback path from an output of the first power amplifier to the pre-distortion processing circuit; a first power control network for controlling a first signal applied to the first power amplifier ; and a second power control network for controlling a second signal applied to the second power amplifier , wherein the first power control network is different from the second power control network. a first path comprising a first power amplifier ; a second path comprising a second power amplifier ; a common input path to both the first path and the second path, wherein the common input path comprises a common pre-distortion processing circuit ; a feedback path from an output of the first power amplifier to the pre-distortion processing circuit; a first power control network for controlling a first signal applied to the first power amplifier ; and a second power control network for controlling a second signal applied to the second power amplifier , wherein the first power control network is different from the second power control network.
A spinal implant comprising: an implant body extending between an anterior surface and a posterior surface , and including a first vertebral engaging surface and a second vertebral engaging surface , the implant body further including an inner surface that defines at least a first cavity of the implant body and a second cavity of the implant body spaced from the first cavity of the implant body, the first cavity of the implant body being oriented to implant a fastener oblique relative to a bilateral axis (XB) of a subject body (B) and the second cavity of the implant body being oriented to implant a fastener in substantial alignment with the bilateral axis (XB), wherein the inner surface further defines a transverse bore configured for disposal of a member , the transverse bore extending substantially parallel to the anterior surface , the spinal implant further comprising the member extending through the transverse bore , wherein the member includes an inner surface that defines a first and a second cavity of the member , wherein the first cavity of the member forms a portion of the first cavity of the implant body, and the second cavity of the member forms a portion of the second cavity of the implant body. an implant body extending between an anterior surface and a posterior surface , and including a first vertebral engaging surface and a second vertebral engaging surface , the implant body further including an inner surface that defines at least a first cavity of the implant body and a second cavity of the implant body spaced from the first cavity of the implant body, the first cavity of the implant body being oriented to implant a fastener oblique relative to a bilateral axis (XB) of a subject body (B) and the second cavity of the implant body being oriented to implant a fastener in substantial alignment with the bilateral axis (XB), wherein the inner surface further defines a transverse bore configured for disposal of a member , the transverse bore extending substantially parallel to the anterior surface , the spinal implant further comprising the member extending through the transverse bore , wherein the member includes an inner surface that defines a first and a second cavity of the member , wherein the first cavity of the member forms a portion of the first cavity of the implant body, and the second cavity of the member forms a portion of the second cavity of the implant body.
A recombinant Mullerian Inhibiting Substance (MIS) protein comprising a combination of a non-MIS leader sequence in place of the MIS leader sequence of amino acids 1-25 of SEQ ID NO: 1, and a modification of amino acid residue 450 of SEQ ID NO 1: to increase cleavage as compared to in the absence of a said modification, wherein amino acid residue 450 of SEQ ID NO: 1 is changed from Q to R, wherein the recombinant MIS protein has increased cleavage and increased yield of production in vitro as compared to wild-type MIS protein corresponding to amino acid residues of SEQ ID NO: 1, wherein the non-MIS leader sequence is selected from the group consisting of: an albumin leader sequence, immunoglobulin signal peptide fused to a tissue-type plasminogen activator propeptide (IgSP-tPA), murine immunoglobulin signal peptide (IgSP), a MPIF-1 signal sequence (MKVSVAALSCLMLVTALGSQA; SEQ ID NO: 15);a stanniocalcin signal sequence (MLQNSAVLLLLVISASA; SEQ ID NO:16); an invertase signal sequence (MLLQAFLFLLAGFAAKISA; SEQ ID NO:17); a yeast mating factor alpha signal sequence (K. lactis killer toxin leader sequence); a hybrid signal sequence (MKWVSFISLLFLFSSAYSRSLEKR; SEQ ID NO:18); a HSA/MFα-1 hybrid signal sequence (MKWVSFISLLFLFSSAYSRSLDKR; SEQ ID NO:19); a K. lactis killer/ MFα-1 fusion leader sequence (MNIFYIFLFLLSFVQGSLDKR; SEQ ID NO:20); an immunoglobulin Ig signal sequence (MGWSCIILFLVATATGVHS; SEQ ID NO:21); a Fibulin B precursor signal sequence (MERAAPSRRVPLPLLLLGGLALLAAGVDA; SEQ ID NO:22); a clusterin precursor signal sequence (MMKTLLLFVGLLLTWESGQVLG; SEQ ID NO: 23); and the insulin-like growth factor-binding protein 4 signal sequence (MLPLCLVAALLLAAGPGPSLG; SEQ ID NO:24) or functional fragments thereof.
An energy storage device with at least one energy storage unit comprising a thermal storage element made of a solid material, for storing thermal energy; an electrical heating device for heating the thermal storage element by means of electric energy; and an electric insulation , in order to electrically insulate the electrical heating device from the thermal storage element , characterized in that the electric insulation is a gas insulation. a thermal storage element made of a solid material, for storing thermal energy; an electrical heating device for heating the thermal storage element by means of electric energy; and an electric insulation , in order to electrically insulate the electrical heating device from the thermal storage element , characterized in that the electric insulation is a gas insulation.
A microneedle array comprising a completely soluble formulation including polyvinylpyrrolidone for use in the intradermal delivery of interferon, characterized in that polyvinylpyrrolidone is the major constituent of the formulation, and the formulation comprises disaccharide, non-ionic surfactants, polyalcohol, in particular glycerin, or trehalose and/or polysorbate and/or glycerin.
Network node for a wireless communication network, the network node for performing interlacing with clustered Discrete Fourier Transform Spread Orthogonal Frequency Division Multiplexing, DFT-S-OFDM, modulation, the network node comprising controlling circuitry configured to cause: reception of Quadrature Amplitude Modulation, QAM, modulated samples representing signals to be transmitted; Discrete Fourier Transform, DFT, precoding of the received QAM modulated samples; reception of an interlace pattern; Resource block-to-subcarrier mapping of the DFT precoded samples, utilizing the received interlace pattern, thereby causing obtainment of a vector of subcarriers; input of the obtained vector of subcarriers to an Inverse Fast Fourier Transformation, IFFT, block; and optionally addition of a cyclic prefix. reception of Quadrature Amplitude Modulation, QAM, modulated samples representing signals to be transmitted; Discrete Fourier Transform, DFT, precoding of the received QAM modulated samples; reception of an interlace pattern; Resource block-to-subcarrier mapping of the DFT precoded samples, utilizing the received interlace pattern, thereby causing obtainment of a vector of subcarriers; input of the obtained vector of subcarriers to an Inverse Fast Fourier Transformation, IFFT, block; and optionally addition of a cyclic prefix.
A method for wireless communications, comprising: receiving , at a gateway in a non-terrestrial network, an upstream transmission from a user equipment, UE, in wireless communication with the gateway and in wireless communication with a a satellite that is different than the gateway; determining , by the gateway, a timing adjustment for a second upstream transmission from the UE based at least in part on the upstream transmission from the UE; and transmitting , from the gateway to the UE in a group control information message or a dedicated physical channel message, a timing command indicating the timing adjustment for the second upstream transmission. receiving , at a gateway in a non-terrestrial network, an upstream transmission from a user equipment, UE, in wireless communication with the gateway and in wireless communication with a a satellite that is different than the gateway; determining , by the gateway, a timing adjustment for a second upstream transmission from the UE based at least in part on the upstream transmission from the UE; and transmitting , from the gateway to the UE in a group control information message or a dedicated physical channel message, a timing command indicating the timing adjustment for the second upstream transmission.
Modular air cleaning system comprising at least one, in particular toolbox-like, modular air cleaning device , comprising at least one, in particular toolbox-like, expansion module , wherein the at least one modular air cleaning device has at least one flow generating unit , in particular for ambient air intake, and comprising at least one coupling unit for coupling the modular air cleaning device to the at least one expansion module , wherein the modular air cleaning device has at least one housing unit , on which the flow generating unit is mounted, in particular for adapting an air flow axis , with an adjustable orientation, in particular with an adjustable angle, characterized by at least one open-loop and/or closed-loop control unit and at least one drive unit , wherein the open-loop and/or closed-loop control unit is designed to control the drive unit for automatically orienting the flow generating unit .
An apparatus for the culture of photosynthetic microorganisms comprising - at least one first panel containing said photosynthetic microorganisms inside it within a circuit having an input and an output; and - at least one device for artificial lighting of said photosynthetic microorganisms , wherein - said at least one device for artificial lighting is an optical device and comprises ▪ a panel having an optical guide ; ▪ a plurality of LEDs ; and ▪ a regulation and control panel of said at least one device for artificial lighting , - said at least one regulation and control panel is suitable to vary both the spectrum, between 200 and 900 nm in order to optimize both the quality of the light emitted, and the light intensity, between 1% and 100% in order to obtain emission uniformity, through the optical guide ; and - the first panel and the panel with the optical guide are facing one another. - at least one first panel containing said photosynthetic microorganisms inside it within a circuit having an input and an output; and - at least one device for artificial lighting of said photosynthetic microorganisms , wherein - said at least one device for artificial lighting is an optical device and comprises ▪ a panel having an optical guide ; ▪ a plurality of LEDs ; and ▪ a regulation and control panel of said at least one device for artificial lighting , ▪ a panel having an optical guide ; ▪ a plurality of LEDs ; and ▪ a regulation and control panel of said at least one device for artificial lighting , - said at least one regulation and control panel is suitable to vary both the spectrum, between 200 and 900 nm in order to optimize both the quality of the light emitted, and the light intensity, between 1% and 100% in order to obtain emission uniformity, through the optical guide ; and - the first panel and the panel with the optical guide are facing one another.
A method for scheduling a task from a plurality of tasks to a processor core of a cluster of processor cores , the processor cores sharing caches , the method being performed by a controller , the method comprising: determining (S102) group-wise task relationships between the plurality of tasks based on a duration of cache misses resulting from running groups of the plurality of tasks on processor cores sharing the same cache; wherein each group-wise task relationship at a time index n is based on averaged individual task relationships at the time index n, wherein there are as many group-wise task relationships as there are caches, and wherein each individual task relationship is based on a ratio between the duration ,tc1-tc0, of cache misses and a total duration ,ti-to, of running one of the tasks, wherein an individual task relationship at the time index n for running a task A on a processor core sharing a cache X has a value R(A,X)[n] given by: R A X n = k − 1 ⋅ R A X n − 1 + tc 1 − tco / t 1 − to / k , where k>1 is a parameter, and scheduling (S104) the task to one of the processor cores based on its individual group-wise task relationship with the other tasks, wherein the task is scheduled to the processor core corresponding to the group-wise task relationship of the task with minimum value. determining (S102) group-wise task relationships between the plurality of tasks based on a duration of cache misses resulting from running groups of the plurality of tasks on processor cores sharing the same cache; wherein each group-wise task relationship at a time index n is based on averaged individual task relationships at the time index n, wherein there are as many group-wise task relationships as there are caches, and wherein each individual task relationship is based on a ratio between the duration ,tc1-tc0, of cache misses and a total duration ,ti-to, of running one of the tasks, wherein an individual task relationship at the time index n for running a task A on a processor core sharing a cache X has a value R(A,X)[n] given by: R A X n = k − 1 ⋅ R A X n − 1 + tc 1 − tco / t 1 − to / k , where k>1 is a parameter, and scheduling (S104) the task to one of the processor cores based on its individual group-wise task relationship with the other tasks,
A method comprising: receiving, at a behavior analysis engine , an executable file from a network traffic hub in a local network as the executable file is being downloaded by a networked device in the local network ; executing the executable file in a sandbox environment operated by the behavior analysis engine and configured to replicate an operating system running by the networked device that is downloading the executable file and to execute the executable file as the networked device would execute the executable file; extracting execution features from the execution of the executable file, the execution features corresponding to characteristics of the execution of the executable file; applying an execution model to the extracted execution features, the execution model to determine whether an executable file is malicious based on execution features of the executable file and transmitting processing instructions to the network traffic hub based on the determination of whether the execution file is malicious. receiving, at a behavior analysis engine , an executable file from a network traffic hub in a local network as the executable file is being downloaded by a networked device in the local network ; executing the executable file in a sandbox environment operated by the behavior analysis engine and configured to replicate an operating system running by the networked device that is downloading the executable file and to execute the executable file as the networked device would execute the executable file; extracting execution features from the execution of the executable file, the execution features corresponding to characteristics of the execution of the executable file; applying an execution model to the extracted execution features, the execution model to determine whether an executable file is malicious based on execution features of the executable file and transmitting processing instructions to the network traffic hub based on the determination of whether the execution file is malicious.