mhurhangee/patent-ind-claim-en huggingface dataset:
An electric power system for use with a generator and including at least one electrical conductor , said electric power system further comprising: an electric power converter including a generator side portion coupled to a line side portion through a DC link ; a dynamic braking system coupled to a positive DC bus and a negative DC bus across said DC link ; wherein said line side portion comprises a switching device coupled to the electrical conductor via an inductive device , characterized in that said switching device is configured to open and close with a plurality of predetermined frequencies, and wherein power losses of said inductive device are at least partially a function of the plurality of predetermined frequencies; and that the electric power system further comprises a dynamic braking controller coupled to said switching device , said dynamic braking controller configured to open and close said switching device with at least one of the predetermined frequencies to dissipate electric power from the electrical conductor at a predetermined rate, by regulating the power losses of said inductive device as a function of the predetermined frequencies. an electric power converter including a generator side portion coupled to a line side portion through a DC link ; a dynamic braking system coupled to a positive DC bus and a negative DC bus across said DC link ; wherein said line side portion comprises a switching device coupled to the electrical conductor via an inductive device , characterized in that said switching device is configured to open and close with a plurality of predetermined frequencies, and wherein power losses of said inductive device are at least partially a function of the plurality of predetermined frequencies; and that the electric power system further comprises a dynamic braking controller coupled to said switching device , said dynamic braking controller configured to open and close said switching device with at least one of the predetermined frequencies to dissipate electric power from the electrical conductor at a predetermined rate, by regulating the power losses of said inductive device as a function of the predetermined frequencies.
Method of operating a coolable furnace roller for transport of a strip or a slab through a furnace, comprising a support axle , which is mounted to be rotatable about an axis (a) and on which a number of support rings is arranged, wherein an insulation is arranged in the axial region between at least two support channels , wherein the insulation consists at least partly of a fibre material, in which the furnace roller is flowed through in its interior by a cooling medium in order to cool the furnace roller , characterised in that the method comprises the steps: a) measuring of the temperature (T inlet ) of the cooling medium entering the furnace roller and measuring the temperature (T oulet ) of the cooling medium leaving the furnace roller and forming the temperature difference (ΔT = T outlet - T inlet ); b) measuring mass flow (ṁ) of the cooling medium flowing through the furnace roller ; c) forming the product of temperature difference (ΔT) and mass flow (ṁ); d) observing the product of temperature difference (ΔT) and mass flow (ṁ) over time; and e) triggering a signal as soon as the value of the product of temperature difference (ΔT) and mass flow (m) exceeds a predetermined limit value. a) measuring of the temperature (T inlet ) of the cooling medium entering the furnace roller and measuring the temperature (T oulet ) of the cooling medium leaving the furnace roller and forming the temperature difference (ΔT = T outlet - T inlet ); b) measuring mass flow (ṁ) of the cooling medium flowing through the furnace roller ; c) forming the product of temperature difference (ΔT) and mass flow (ṁ); d) observing the product of temperature difference (ΔT) and mass flow (ṁ) over time; and e) triggering a signal as soon as the value of the product of temperature difference (ΔT) and mass flow (m) exceeds a predetermined limit value.
A bispecific antibody comprising a first binding part specifically binding to human CEACAM5 and a second binding part specifically binding to human CD47, characterized in that a) the first binding part comprises a heavy chain variable region comprising as CDRs a CDRH1 of SEQ ID NO:25, a CDRH2 of SEQ ID NO:26 and a CDRH3 of SEQ ID NO:27 and a light chain variable region comprising a combination of CDRL1, CDRL2 and CDRL3 selected from the group consisting of SEQ ID NO:31, 32 and 33; and SEQ ID NO:34, 35, and 36, b) and the second binding part comprises a heavy chain variable region comprising as CDRs a CDRH1 of SEQ ID NO:25, CDRH2 of SEQ ID NO:26 and CDRH3 of SEQ ID NO:27 and a light chain variable region comprising as CDRs a CDRL1 of SEQ ID NO:28, CDRL2 of SEQ ID NO:29, and CDRL3 of SEQ ID NO:30. a) the first binding part comprises a heavy chain variable region comprising as CDRs a CDRH1 of SEQ ID NO:25, a CDRH2 of SEQ ID NO:26 and a CDRH3 of SEQ ID NO:27 and a light chain variable region comprising a combination of CDRL1, CDRL2 and CDRL3 selected from the group consisting of SEQ ID NO:31, 32 and 33; and SEQ ID NO:34, 35, and 36, b) and the second binding part comprises a heavy chain variable region comprising as CDRs a CDRH1 of SEQ ID NO:25, CDRH2 of SEQ ID NO:26 and CDRH3 of SEQ ID NO:27 and a light chain variable region comprising as CDRs a CDRL1 of SEQ ID NO:28, CDRL2 of SEQ ID NO:29, and CDRL3 of SEQ ID NO:30.
A method of determining the metastatic potential and/or tumor aggressiveness of a colorectal cancer in a subject, comprising the steps: a) determining the gene expression levels of genes SLC35D3, and POSTN in a regional lymph node sample obtained from the subject; and b) comparing the gene expression levels determined in step a) with the reference gene expression levels of the same genes in a reference patient population; wherein higher expression levels of the genes SLC35D3 and POSTN compared to the reference are associated with an increased metastatic potential and /or tumor aggressiveness. a) determining the gene expression levels of genes SLC35D3, and POSTN in a regional lymph node sample obtained from the subject; and b) comparing the gene expression levels determined in step a) with the reference gene expression levels of the same genes in a reference patient population;
A burner for the firing of ceramic articles (T), which can be installed in an industrial kiln comprising a firing chamber ; the burner comprising: a mixing body comprising, in turn, at least one duct to feed a fuel (FL) provided with a percentage of hydrogen and at least one duct to feed an oxidizer (OX); a spark device to start a combustion; a flame detection device ; a first tubular discharge element , which is configured to be flown through by a fluid (F) flowing out of the mixing body and is provided with a first end , into which at least part of the mixing body is inserted, and a second end , which is opposite the first end ; the burner being characterized in that the mixing body comprises both a fuel partitioning system (FPS) for the fuel (FL), which is configured to divide the fuel (FL) into a plurality of first portions (FL', FL", FL′′′), and an oxidizer partitioning system (OPS) for the oxidizer (OX), which is configured to divide the oxidizer (OX) into a plurality of second portions (OX', OX", OX′′′), which are conveyed so as be mixed in at least two different stages with the first portions. the burner comprising: a mixing body comprising, in turn, at least one duct to feed a fuel (FL) provided with a percentage of hydrogen and at least one duct to feed an oxidizer (OX); a spark device to start a combustion; a flame detection device ; a first tubular discharge element , which is configured to be flown through by a fluid (F) flowing out of the mixing body and is provided with a first end , into which at least part of the mixing body is inserted, and a second end , which is opposite the first end ; the burner being characterized in that the mixing body comprises both a fuel partitioning system (FPS) for the fuel (FL), which is configured to divide the fuel (FL) into a plurality of first portions (FL', FL", FL′′′), and an oxidizer partitioning system (OPS) for the oxidizer (OX), which is configured to divide the oxidizer (OX) into a plurality of second portions (OX', OX", OX′′′), which are conveyed so as be mixed in at least two different stages with the first portions.
Implant comprising a tubular perforated structure extending in the longitudinal direction (A) or in the circumferential direction and composed of a plurality of bars which extend at least partially in the longitudinal direction, wherein at least one joint element , the main web of which extending substantially in the longitudinal direction has a continuous gap , wherein the joint element has at least one bridge web , preferably two bridge webs, wherein each bridge web is arranged in a circumferential direction (U) of the tubular structure next to the main web and is connected to the main web in the longitudinal direction (A) in front of and behind the gap , characterized in that the width (D2) of the bridge web corresponds to at least 20% of the web width of the main web, and the sum of the width of all bridge webs of an articulated element does not exceed the width of the main web.
A cooking system comprising: at least one cooking device movable carried by an elevator between a stowed position and a deployed position such that in the stowed position the cooking device is located either behind or below a corresponding surface of a countertop and in the deployed position the cooking device upwardly extends through an opening in the corresponding surface, characterized in that the at least one cooking device is a cooking hob , the cooking hob being removable from the elevator, and by a cord retraction mechanism for guiding one or more cooking device cords.
A computer-implemented method for generating a labelled image, comprising: acquiring a first and second random vector set; inputting at least one random vector in the second random vector set into a trained image generator to generate at least one to-be-labeled virtual image corresponding to the at least one random vector; labeling the random vector corresponding to the to-be-labeled virtual image according to the image category to which the to-be-labeled virtual image belongs, to obtain a random vector sample having a classification label; training a preset classification model using the random vector sample having the classification label, to obtain a trained classifier; determining (S120) an image category to which at least one random vector in the first random vector set belongs, based on the trained classifier; and inputting (S130) a random vector belonging to the image category into a trained image generator to generate a virtual image belonging to the image category. acquiring a first and second random vector set; inputting at least one random vector in the second random vector set into a trained image generator to generate at least one to-be-labeled virtual image corresponding to the at least one random vector; labeling the random vector corresponding to the to-be-labeled virtual image according to the image category to which the to-be-labeled virtual image belongs, to obtain a random vector sample having a classification label; training a preset classification model using the random vector sample having the classification label, to obtain a trained classifier; determining (S120) an image category to which at least one random vector in the first random vector set belongs, based on the trained classifier; and inputting (S130) a random vector belonging to the image category into a trained image generator to generate a virtual image belonging to the image category.
A computer-implemented method to convert a first computation network of operations into a second computation network of operations, the operations of the second computation network being fully homomorphic encrypted (FHE) operations, the operations in the first computation network comprising matrix operations ( y = Wx + B ) including an integral matrix multiplication and further operations (z = A ( y )), converting the first computation network into the second computation network comprises converting the operations in the first computation network into corresponding FHE operations in the second computation network, wherein converting an operation in the first computation network comprises - obtaining for the input values of the operation a supported range of the input values in the first computation network, wherein the first computation network is evaluated for a sample set of input values while monitoring the input values of the operation to obtain an observed range of the input values of the operation, the supported range being derived from the observed range, - determining a prescribed range for the input values of a corresponding FHE operation, wherein the prescribed range ensures correct processing of the input values by the FHE operation, - determining a scaling factor (1/ d 1 ) between the size of the supported range of a value in the first computation network and the size of a scaled range of the value in the second computation network, such that the size of the scaled range obtained from applying the scaling factor to each input value's supported range is at most the size of the prescribed range, - adjusting the operation to receive the input values scaled with the scaling factor. - obtaining for the input values of the operation a supported range of the input values in the first computation network, wherein the first computation network is evaluated for a sample set of input values while monitoring the input values of the operation to obtain an observed range of the input values of the operation, the supported range being derived from the observed range, - determining a prescribed range for the input values of a corresponding FHE operation, wherein the prescribed range ensures correct processing of the input values by the FHE operation, - determining a scaling factor (1/ d 1 ) between the size of the supported range of a value in the first computation network and the size of a scaled range of the value in the second computation network, such that the size of the scaled range obtained from applying the scaling factor to each input value's supported range is at most the size of the prescribed range, - adjusting the operation to receive the input values scaled with the scaling factor.
A solid rocket motor , comprising: a case ; a solid propellant ; and a seal attached to the motor , the seal isolating the solid propellant from a fluid external of the case , characterised in that : the seal is at least partially transparent. a case ; a solid propellant ; and a seal attached to the motor , the seal isolating the solid propellant from a fluid external of the case , characterised in that : the seal is at least partially transparent.
A method of servicing a shock absorber of an aircraft landing gear shock absorbing strut , the shock absorber including a sealed, variable volume chamber containing a liquid and a gas in fluid communication with one another, the method comprising: using a mixer to mix the liquid and the gas within the chamber until the liquid is uniformly saturated with the gas; and subsequently performing one or more servicing actions; characterised in that the mixer comprises a pump device located within the chamber; or characterised in that the mixer comprises a pump device external to the shock absorber and including a first hose coupled to a first port through a lower end of the shock absorber so as to provide fluid communication with a lower region of the chamber and a second hose coupled to a second port through an upper end of the shock absorber so as to provide fluid communication with an upper region of the chamber; or characterised in that the mixer comprises an impeller mounted for rotation within the chamber and an electric motor arranged to drive the impeller, the motor being sealed within a liquid tight enclosure. using a mixer to mix the liquid and the gas within the chamber until the liquid is uniformly saturated with the gas; and subsequently performing one or more servicing actions; characterised in that the mixer comprises a pump device located within the chamber; or characterised in that the mixer comprises a pump device external to the shock absorber and including a first hose coupled to a first port through a lower end of the shock absorber so as to provide fluid communication with a lower region of the chamber and a second hose coupled to a second port through an upper end of the shock absorber so as to provide fluid communication with an upper region of the chamber; or characterised in that the mixer comprises an impeller mounted for rotation within the chamber and an electric motor arranged to drive the impeller, the motor being sealed within a liquid tight enclosure.
Water turbine, comprising at least one hollow-shaped rotor body for forming a medium duct with at least one closing surface limiting the hollow-shaped rotor body, wherein the rotor body is designed as a hollow cylinder, at least one shaft for energy removal arranged on and/or in the rotor body , at least one medium supply opening for supplying of a fluid into the rotor body, and at least one nozzle ring with at least one medium outlet duct opening for the drainage of the fluid from the nozzle ring , wherein the nozzle ring further comprises at least one disc element and/or is designed as a disc element , and wherein the outer diameter of the nozzle ring is equal to the outer diameter of the rotor body .
A set of impact attenuators comprising at least two impact attenuators connected together, each having a deformable element with a first and a second end as well as a system for deformation of the deformable element having a casing with an empty space and a guide sliding along the casing, whereby the deformable element is located in the empty space of the casing and the deformable element at the first end located outside the empty space of the casing has a grip to fix to the guide , whereas the second end of the deformable element is free and between the first end and the second end of the deformable element there is a bend with a deformation zone of the deformable element , which translocates during pulling out of the deformable element from the casing during moving of the guide in relation to the casing of the deformable element and each cross-section of the deformable element in every point of a pulled out part of the deformable element is selected in such a way that value of the force causing pulling out of the deformable element from the casing and its deformation occurring at an outlet of the empty space of the casing is lower than value of the force that would cause tearing off of the deformable element and the cross-section of a compressed part of the casing in each its point is selected in such a way that value of the force causing pulling out of the deformable element from the casing and its deformation occurring at the outlet of the empty space of the casing is lower than value of the force which would cause deformation of the casing , whereby the set has pairs of the impact attenuators connected in parallel, the guides of the impact attenuators forming a first pair being connected together via a front connecting beam adapted to be connected to a hitch system , whereas the casings of their deformable elements of the first pair of attenuators are connected together via a middle beam , to which are attached guides of the impact attenuators of a next pair of attenuators, whereas the casings of the deformable elements of the next pair of the attenuators are connected together via elements of a rear impact system or, alternatively, connected together via a next middle beam to which are attached the guides of the impact attenuators of a further pair of attenuators, whereby the casings of the further pair or last pair of the impact attenuators are connected together via elements of the rear impact system.
An anti-OXA-23-type carbapenemase antibody, wherein the anti-OXA-23-type carbapenemase antibody is: an antibody HB12 comprising a light chain variable region and a heavy chain variable region, wherein complementary-determining regions (CDRs) of the light chain variable region comprise three sequences shown in SEQ ID NO: 1, SEQ ID NO: 2, and SEQ ID NO: 3; and CDRs of the heavy chain variable region comprise three sequences shown in SEQ ID NO: 4, SEQ ID NO: 5, and SEQ ID NO: 6, the light chain variable region has an amino acid sequence shown in SEQ ID NO: 7, and the heavy chain variable region has an amino acid sequence shown in SEQ ID NO: 9; or, an antibody FA2 comprising a light chain variable region and a heavy chain variable region, wherein CDRs of the light chain variable region comprise three sequences shown in SEQ ID NO: 11, SEQ ID NO: 12, and SEQ ID NO: 13; and CDRs of the heavy chain variable region comprise three sequences shown in SEQ ID NO: 14, SEQ ID NO: 15, and SEQ ID NO: 16, the light chain variable region has an amino acid sequence shown in SEQ ID NO: 17, and the heavy chain variable region has an amino acid sequence shown in SEQ ID NO: 19.
A charged polymerization loop reactor comprising: a loop reaction zone defined by a generally cylindrical wall having a nominal outside diameter of at most 22 inches (56 cm), wherein the length of the loop reaction zone and the nominal outside diameter of the generally cylindrical wall define a length / diameter ratio greater than 250, a continuous take off for continuously withdrawing a fluid slurry from the loop reaction zone; and a fluid slurry disposed in the loop reaction zone, the slurry comprising at least one olefin monomer reactant, solid olefin polymer particles, and a liquid diluent, wherein the concentration of the solid olefin polymer particles in the slurry is greater than 40 weight percent based on the weight of the polymer particles and the weight of the liquid diluent and the loop reactor zone has a volume of greater than 30,000 gallons (114 m 3 ). a loop reaction zone defined by a generally cylindrical wall having a nominal outside diameter of at most 22 inches (56 cm), wherein the length of the loop reaction zone and the nominal outside diameter of the generally cylindrical wall define a length / diameter ratio greater than 250, a continuous take off for continuously withdrawing a fluid slurry from the loop reaction zone; and a fluid slurry disposed in the loop reaction zone, the slurry comprising at least one olefin monomer reactant, solid olefin polymer particles, and a liquid diluent, wherein the concentration of the solid olefin polymer particles in the slurry is greater than 40 weight percent based on the weight of the polymer particles and the weight of the liquid diluent and the loop reactor zone has a volume of greater than 30,000 gallons (114 m 3 ).
System for spraying a washing liquid, comprising: - at least one valve , said at least one valve being intended to be coupled to a tank and, respectively, to at least one spray member , and being configured to selectively transmit a washing liquid pumped by a pump from said tank to the at least one respective spray member , wherein the at least one valve is disposed in the form of a distribution block with an inlet of the block being configured to be fluidically connected to the pump and comprising fluidic connectors disposed in parallel and intended to be connected to the at least one spray member , characterised in that the distribution block also comprises a mechanical overpressure valve disposed in parallel with the fluidic connectors and configured to be fitted on one of the fluidic connectors of the distribution block . - at least one valve , said at least one valve being intended to be coupled to a tank and, respectively, to at least one spray member , and being configured to selectively transmit a washing liquid pumped by a pump from said tank to the at least one respective spray member ,