mhurhangee/ep-ind-claims huggingface dataset:
A method of determining the relative location of an image capture device of a monitoring system for monitoring the positioning of a patient during radiation treatment and an isocenter of a treatment room towards which a treatment apparatus is arranged to direct radiation, the method comprising: locating a calibration phantom with its center located approximately at the isocenter of a treatment room, wherein in plan-view the surface of the calibration phantom closest to an image capture device is inclined approximately 45° relative to the camera plane of the image capture device; obtaining an image of the calibration phantom using the image capture device; processing an obtained image to generate a model of the imaged surface of the calibration phantom characterized by utilizing the generated model of the imaged surface of the calibration phantom to identify the relative location of the center of the calibration phantom and the camera plane of the image capture device; and utilizing the identified relative location of the center of the calibration phantom and the camera plane of the image capture device to determine the relative location of the camera plane of the image capture device and the isocenter of the treatment room towards which the treatment apparatus is arranged to direct radiation. locating a calibration phantom with its center located approximately at the isocenter of a treatment room, wherein in plan-view the surface of the calibration phantom closest to an image capture device is inclined approximately 45° relative to the camera plane of the image capture device; obtaining an image of the calibration phantom using the image capture device; processing an obtained image to generate a model of the imaged surface of the calibration phantom characterized by utilizing the generated model of the imaged surface of the calibration phantom to identify the relative location of the center of the calibration phantom and the camera plane of the image capture device; and utilizing the identified relative location of the center of the calibration phantom and the camera plane of the image capture device to determine the relative location of the camera plane of the image capture device and the isocenter of the treatment room towards which the treatment apparatus is arranged to direct radiation.
A computer implemented method, comprising: determining that a binary software component was compiled with stack cookie functionality enabled based on metadata included with the binary software component; identifying a function defined in the binary software component, the function including one or more instructions; performing a binary static analysis of the function to determine whether the function utilizes stack cookie protection based on the one or more instructions including one or more stack cookie handling instructions; in response to determining that the function utilizes stack cookie protection, updating a security report for the binary software component to indicate that the function utilizes stack cookie protection; wherein the one or more stack cookie handling instructions are configured, when executed by a processor, to insert a particular data sequence into an execution stack maintained by the processor when the function is called to mark a boundary of stack data associated with the function; and wherein the one or more stack cookie handling instructions include an instruction to generate the particular data sequence when the function is called. determining that a binary software component was compiled with stack cookie functionality enabled based on metadata included with the binary software component; identifying a function defined in the binary software component, the function including one or more instructions; performing a binary static analysis of the function to determine whether the function utilizes stack cookie protection based on the one or more instructions including one or more stack cookie handling instructions; in response to determining that the function utilizes stack cookie protection, updating a security report for the binary software component to indicate that the function utilizes stack cookie protection; wherein the one or more stack cookie handling instructions are configured, when executed by a processor, to insert a particular data sequence into an execution stack maintained by the processor when the function is called to mark a boundary of stack data associated with the function; and wherein the one or more stack cookie handling instructions include an instruction to generate the particular data sequence when the function is called.
A computer-implemented method of generating, by a path generation system associated with a road vehicle, a reference navigation path in real-time for safe navigation of the road vehicle, the method comprising: receiving a pre-generated navigation path between a source point and a destination point, from one or more sources; identifying, in real-time, a plurality of values corresponding to a current condition of the road vehicle, for a selected segment among one or more segments in the pre-generated navigation path, wherein the road vehicle is configured to navigate along the pre-generated navigation path; determining an angular shift of the road vehicle from the selected segment of the pre-generated navigation path, by comparing the plurality of values corresponding to the current condition of the road vehicle with pre-stored values; generating the reference navigation path for the selected segment of the pre-generated navigation path based on the angular shift; characterized in that the method further comprises: providing the reference navigation path to a navigation module associated with the path generation system for safe navigation of the road vehicle, wherein the navigation module causes the road vehicle navigating through the reference navigation path to shift to the pre-generated navigation path due to the current condition of the road vehicle. receiving a pre-generated navigation path between a source point and a destination point, from one or more sources; identifying, in real-time, a plurality of values corresponding to a current condition of the road vehicle, for a selected segment among one or more segments in the pre-generated navigation path, wherein the road vehicle is configured to navigate along the pre-generated navigation path; determining an angular shift of the road vehicle from the selected segment of the pre-generated navigation path, by comparing the plurality of values corresponding to the current condition of the road vehicle with pre-stored values; generating the reference navigation path for the selected segment of the pre-generated navigation path based on the angular shift; characterized in that the method further comprises: providing the reference navigation path to a navigation module associated with the path generation system for safe navigation of the road vehicle, wherein the navigation module causes the road vehicle navigating through the reference navigation path to shift to the pre-generated navigation path due to the current condition of the road vehicle.
An in vitro one pot method for synthesis of O-linked and/or S-linked di-glycosylated products, wherein the method comprises of: a. providing a mixture of a donor substrate and an acceptor substrate in a ratio in the range of 20: 1 to 400:1, wherein the donor substrate is an activated nucleotide sugar selected from the group consisting of saccharide-UDP, saccharide-GDP, and related nucleotide sugars thereof and the acceptor substrate comprises a peptide or polypeptide having amino acid sequence selected from the group consisting of SEQ ID NO.: 4, SEQ ID NO.: 5, SEQ ID NO.: 6, SEQ ID NO.: 7, SEQ ID NO.: 8, SEQ ID NO.: 9, SEQ ID NO.: 10, SEQ ID NO.: 11, SEQ ID NO.: 12, SEQ ID NO.: 13, SEQ ID NO.: 14, SEQ ID NO.: 15, SEQ ID NO.: 16 and SEQ ID NO.: 17; b. providing a multifunctional recombinant nucleotide dependent di-glycosyltransferase protein having amino acid sequence selected from the group consisting of SEQ ID NO. 1, SEQ ID NO. 2, and SEQ ID NO. 3; c. contacting a multifunctional recombinant nucleotide dependent di-glycosyltransferase protein obtained in step (b) with the mixture obtained in step (a); d. reacting the donor substrate and the acceptor substrate in presence of the multifunctional recombinant nucleotide dependent di-glycosyltransferase protein, wherein the glycosyltransferase protein catalyzes the transfer of plurality of saccharide moieties from the donor substrate to serine, threonine or cysteine residue in the acceptor substrate to obtain the O-linked and/or S-linked di-glycosylated products. a. providing a mixture of a donor substrate and an acceptor substrate in a ratio in the range of 20: 1 to 400:1, wherein the donor substrate is an activated nucleotide sugar selected from the group consisting of saccharide-UDP, saccharide-GDP, and related nucleotide sugars thereof and the acceptor substrate comprises a peptide or polypeptide having amino acid sequence selected from the group consisting of SEQ ID NO.: 4, SEQ ID NO.: 5, SEQ ID NO.: 6, SEQ ID NO.: 7, SEQ ID NO.: 8, SEQ ID NO.: 9, SEQ ID NO.: 10, SEQ ID NO.: 11, SEQ ID NO.: 12, SEQ ID NO.: 13, SEQ ID NO.: 14, SEQ ID NO.: 15, SEQ ID NO.: 16 and SEQ ID NO.: 17; b. providing a multifunctional recombinant nucleotide dependent di-glycosyltransferase protein having amino acid sequence selected from the group consisting of SEQ ID NO. 1, SEQ ID NO. 2, and SEQ ID NO. 3; c. contacting a multifunctional recombinant nucleotide dependent di-glycosyltransferase protein obtained in step (b) with the mixture obtained in step (a); d. reacting the donor substrate and the acceptor substrate in presence of the multifunctional recombinant nucleotide dependent di-glycosyltransferase protein, wherein the glycosyltransferase protein catalyzes the transfer of plurality of saccharide moieties from the donor substrate to serine, threonine or cysteine residue in the acceptor substrate to obtain the O-linked and/or S-linked di-glycosylated products.
A composite mat, comprising: a) a woven or non-woven cellulosic fiber, b) a polymeric binder, and c) a fire resistant additive, in an amount from 0.1-75%, 1-50%, 1-40%, 1-30%, 5-30%, 5-25%, 5-20%, 5-15%, 5-10%, 7.5-15%, 7.5-20% or 10-20% by weight relative to the total weight of the composite mat wherein the binder and fire resistant additive form a blend, wherein the blend penetrates the fiber and wherein the polymeric binder is formed from at least one α,β-monoethylenically unsaturated mono- or dicarboxylic acid. a) a woven or non-woven cellulosic fiber, b) a polymeric binder, and c) a fire resistant additive, in an amount from 0.1-75%, 1-50%, 1-40%, 1-30%, 5-30%, 5-25%, 5-20%, 5-15%, 5-10%, 7.5-15%, 7.5-20% or 10-20% by weight relative to the total weight of the composite mat wherein the binder and fire resistant additive form a blend, wherein the blend penetrates the fiber and wherein the polymeric binder is formed from at least one α,β-monoethylenically unsaturated mono- or dicarboxylic acid.
An antenna device comprising: a plurality of transmission antennas (24-1,..., 24-N Tx) for radiating transmission signals; and a plurality of reception antennas (31-1,..., 31- N Rx) each for receiving, as a reflected signal, each of the transmission signals radiated from the respective plurality of transmission antennas and then reflected by a target, and outputting a reception signal corresponding to the reflected signals, characterized in that the plurality of reception antennas are arranged at regular intervals between two transmission antennas adj acent to each other among the plurality of transmission antennas, and a spacing between the two transmission antennas adjacent to each other has a width obtained by adding an integral multiple of a spacing between each two adjacent reception antennas of the plurality of reception antennas to a width obtained by dividing the spacing between each two adjacent reception antennas of the plurality of reception antennas by the number of the plurality of transmission antennas. a plurality of transmission antennas (24-1,..., 24-N Tx) for radiating transmission signals; and a plurality of reception antennas (31-1,..., 31- N Rx) each for receiving, as a reflected signal, each of the transmission signals radiated from the respective plurality of transmission antennas and then reflected by a target, and outputting a reception signal corresponding to the reflected signals, characterized in that the plurality of reception antennas are arranged at regular intervals between two transmission antennas adj acent to each other among the plurality of transmission antennas, and a spacing between the two transmission antennas adjacent to each other has a width obtained by adding an integral multiple of a spacing between each two adjacent reception antennas of the plurality of reception antennas to a width obtained by dividing the spacing between each two adjacent reception antennas of the plurality of reception antennas by the number of the plurality of transmission antennas.
Method for the optimized adjustment of a heating control of a heating and possibly hot-water preparing system with two serially connected and controllable heat generators (20, 30) for heating a space by means of a heating circuit, comprising the following steps: • specifying the desired heating temperature for the heating circuit of the heating space to be heated and possibly a setpoint flow temperature for the preparation of hot water, • specifying the cost boundary conditions to be optimized of the two heat generators (20, 30), • determining the outside temperature around the space to be heated, • determining the return temperature from the heating circuit to the first of the two heat generators, characterized in that the method further comprises the following steps: • selecting a first flow temperature for the first heat generator between the determined return temperature and the desired heating temperature, • calculating the total costs for operating the heating system with the values specified and determined, • iteratively varying the flow temperature for the first heat generator with subsequent calculation in each case of the total costs for operating the heating system with the values specified and determined, • comparing all of the iteratively calculated total costs, and • specifying the flow temperature that led to the lowest calculated total costs as a setpoint value for the control of the first heat generator. • specifying the desired heating temperature for the heating circuit of the heating space to be heated and possibly a setpoint flow temperature for the preparation of hot water, • specifying the cost boundary conditions to be optimized of the two heat generators (20, 30), • determining the outside temperature around the space to be heated, • determining the return temperature from the heating circuit to the first of the two heat generators, • selecting a first flow temperature for the first heat generator between the determined return temperature and the desired heating temperature, • calculating the total costs for operating the heating system with the values specified and determined, • iteratively varying the flow temperature for the first heat generator with subsequent calculation in each case of the total costs for operating the heating system with the values specified and determined, • comparing all of the iteratively calculated total costs, and • specifying the flow temperature that led to the lowest calculated total costs as a setpoint value for the control of the first heat generator.
A method for determining optical configuration, e.g. intraocular lens spherical equivalent and cylinder power, of an implantable rotationally-extended tolerant ophthalmic apparatus for the selection thereof, said ophthalmic apparatus being an intraocular lens, the method comprising: receiving, by a processor, measurement data associated with an eye of a patient; determining, by the processor, using a conventional power calculator and using the measurement data, a spherical equivalent and cylinder power for an ophthalmic apparatus selected from the group consisting of an implantable rotationally-extended tolerant ophthalmic apparatus, an implantable extended range of vision ophthalmic apparatus, and an implantable extended depth of focus (EDOF) ophthalmic apparatus; determining, by the processor, a refractive or residual cylinder power associated with a random residual astigmatism power for the ophthalmic apparatus, wherein the random residual astigmatism power is associated with a pre-determined rotational misalignment for the apparatus once implanted; in response to a manifest refraction spherical equivalent (MRSE) parameter or manifest residual cylinder power being outside an acceptable range of visual acuity, modifying the spherical equivalent by adding a RC value thereto until the manifest refraction spherical equivalent (MRSE) parameter or manifest residual cylinder power is within the acceptable range; and causing, by the processor, a visual representation of the spherical equivalent and cylinder power to be presented, wherein the spherical equivalent and cylinder power are used for the selection of the implantable ophthalmic apparatus to be implanted into the eye of the patient. receiving, by a processor, measurement data associated with an eye of a patient; determining, by the processor, using a conventional power calculator and using the measurement data, a spherical equivalent and cylinder power for an ophthalmic apparatus selected from the group consisting of an implantable rotationally-extended tolerant ophthalmic apparatus, an implantable extended range of vision ophthalmic apparatus, and an implantable extended depth of focus (EDOF) ophthalmic apparatus; determining, by the processor, a refractive or residual cylinder power associated with a random residual astigmatism power for the ophthalmic apparatus, wherein the random residual astigmatism power is associated with a pre-determined rotational misalignment for the apparatus once implanted; in response to a manifest refraction spherical equivalent (MRSE) parameter or manifest residual cylinder power being outside an acceptable range of visual acuity, modifying the spherical equivalent by adding a RC value thereto until the manifest refraction spherical equivalent (MRSE) parameter or manifest residual cylinder power is within the acceptable range; and causing, by the processor, a visual representation of the spherical equivalent and cylinder power to be presented, wherein the spherical equivalent and cylinder power are used for the selection of the implantable ophthalmic apparatus to be implanted into the eye of the patient.
Semi-precast slab (1; 101) including a concrete body (2; 102) and reinforcements anchored in said concrete body, some of said reinforcements forming at least one cage support (4; 104; 204), the semi-precast slab being characterised in that it comprises at least one cage (11; 111) consisting of reinforcements not anchored to the concrete body and received in the cage support to slide between a retracted position and a deployed position in which the cage projects from the semi-precast slab, the cage comprising at least one side bar (18; 118) and extending across the cage support so as to slide along said cage support until the side bar abuts against the cage support, thus defining the deployed position.
A composition comprising strictly anaerobically cultivated human intestinal microbiota selected from at least three of the four Phyla,Bacterioidetes, Firmicutes, Proteobacteria and Actinobacteria for use in the prevention and treatment of diseases.
A tie rod comprising locking elements to lock the ends of the tie rod to respective end supports (60, 60'), the tie rod being able to cross said end supports, characterized in that said locking elements comprise, at each end support, two pairs of spacers (42, 43, 42', 43'), each pair of spacers having surfaces joined to each other (53, 54, 53', 54) substantially in the shape of an annular portion of a spherical cap, and at least two tightening nuts wherein, at each end support, there are provided in a fixed-end tie rod configuration - a first pair of spacers (42, 43) arranged at an external side of the end support, - a second pair of spacers (42', 43') arranged at an internal side of the end support - wherein said first pair of spacers and said second pair of spacers are arranged symmetrically with respect to the end support, - wherein the pair of joined surfaces (53, 54) of the first pair of spacers has a radius equal to the radius of the pair of joined surfaces (53', 54') of the second pair of spacers, said pairs of joined surfaces being arranged on different spherical surfaces, - and wherein said at least two tightening nuts are tightened externally on said first pair of spacers (42, 43). - a first pair of spacers (42, 43) arranged at an external side of the end support, - a second pair of spacers (42', 43') arranged at an internal side of the end support - wherein said first pair of spacers and said second pair of spacers are arranged symmetrically with respect to the end support, - wherein the pair of joined surfaces (53, 54) of the first pair of spacers has a radius equal to the radius of the pair of joined surfaces (53', 54') of the second pair of spacers, said pairs of joined surfaces being arranged on different spherical surfaces, - and wherein said at least two tightening nuts are tightened externally on said first pair of spacers (42, 43).
A method for power conversion for providing a direct current output based at least in part on an alternating current, comprising: rectifying the alternating current to a first direct current via a first rectifier circuit; averaging the first direct current via an averaging circuit to provide a second direct current; and rectifying the alternating current to a third direct current via a second rectifier circuit; and providing the direct current output derived from the second direct current and the third direct current; wherein one or both of the first rectifier circuit and the second rectifier circuit comprise a rectifier topology comprising a combination of rectifier circuits, wherein the rectifier topology comprises a full wave rectifier circuit electrically connected in series with a current doubler circuit, the current doubler circuit comprising two inductors (L5, L6, L9, L10) and two diodes (D17, D18, D24, D25). rectifying the alternating current to a first direct current via a first rectifier circuit; averaging the first direct current via an averaging circuit to provide a second direct current; and rectifying the alternating current to a third direct current via a second rectifier circuit; and providing the direct current output derived from the second direct current and the third direct current; wherein one or both of the first rectifier circuit and the second rectifier circuit comprise a rectifier topology comprising a combination of rectifier circuits, wherein the rectifier topology comprises a full wave rectifier circuit electrically connected in series with a current doubler circuit, the current doubler circuit comprising two inductors (L5, L6, L9, L10) and two diodes (D17, D18, D24, D25).