mhurhangee/ep-ind-claims huggingface dataset:
Method to optimize repowering of solar photovoltaic power plants through predictive and preventive maintenance in which a. in a first step, an aerial thermographic infrared and/or electroluminescent inspection is carried out to detect failed modules; b. during the analysis of the results of said inspection, failed modules are classified in each of the following three types of failure: A - irreversible, B - reversible y C - partly reversible; c. modules with failure type A are substituted by new ones, of more power, which are grouped and series-connected within strings and their power range has a standard deviation lower than ±5%; d. modules with failure type B are repaired and their original power recovered, and, once repaired, they are put back in their original position within the power plant; e. modules with failure type C are either re-grouped according to their new power (always lower) in groups within strings, where they are series-connected and their power range has a standard deviation lower than ±5%, or they are destined to other power plants and are substituted by new modules, of higher power, which are grouped within strings, where they are series-connected and their power range has a standard deviation lower than ±5%. a. in a first step, an aerial thermographic infrared and/or electroluminescent inspection is carried out to detect failed modules; b. during the analysis of the results of said inspection, failed modules are classified in each of the following three types of failure: A - irreversible, B - reversible y C - partly reversible; c. modules with failure type A are substituted by new ones, of more power, which are grouped and series-connected within strings and their power range has a standard deviation lower than ±5%; d. modules with failure type B are repaired and their original power recovered, and, once repaired, they are put back in their original position within the power plant; e. modules with failure type C are either re-grouped according to their new power (always lower) in groups within strings, where they are series-connected and their power range has a standard deviation lower than ±5%, or they are destined to other power plants and are substituted by new modules, of higher power, which are grouped within strings, where they are series-connected and their power range has a standard deviation lower than ±5%.
Method (S1-S7) for evaluating a reliability of CT volume images of an examination object, wherein - a computationally reconstructed first CT volume image is acquired from scanned projection images of the examination object, - a modified CT volume image of the same examination object created for image artefact reduction by means of an image enhancement method is acquired, - at least one projection direction is determined for which a simulated radiation beam penetrates at least one voxel of the modified CT volume image, said voxel being modified in comparison with the first CT volume image, - for the at least one determined projection direction, respectively at least one digitally reconstructed X-ray image is calculated from the first CT volume image and from the modified CT volume image, - a similarity is determined, in each case, between the at least one digitally reconstructed X-ray image calculated from the first CT volume image and the respective corresponding scanned projection image, on the one hand, and between the at least one digitally reconstructed X-ray image calculated from the modified CT volume image and the respective corresponding scanned projection image, on the other hand, and - for evaluating the reliability of the CT volume images, the determined similarities are compared with one another. - a computationally reconstructed first CT volume image is acquired from scanned projection images of the examination object, - a modified CT volume image of the same examination object created for image artefact reduction by means of an image enhancement method is acquired, - at least one projection direction is determined for which a simulated radiation beam penetrates at least one voxel of the modified CT volume image, said voxel being modified in comparison with the first CT volume image, - for the at least one determined projection direction, respectively at least one digitally reconstructed X-ray image is calculated from the first CT volume image and from the modified CT volume image, - a similarity is determined, in each case, between the at least one digitally reconstructed X-ray image calculated from the first CT volume image and the respective corresponding scanned projection image, on the one hand, and between the at least one digitally reconstructed X-ray image calculated from the modified CT volume image and the respective corresponding scanned projection image, on the other hand, and - for evaluating the reliability of the CT volume images, the determined similarities are compared with one another.
A component for a gas turbine engine, comprising: a vascular engineered lattice structure (80; 280; 380; 480) formed inside of said component; and said vascular engineered lattice structure including a hollow vascular structure in which airflow is communicated inside hollow passages of one or more nodes and inside of hollow passages of one or more branches of said hollow vascular structure, said vascular engineered lattice structure (180...480) includes at least two separate axial flow vascular engineered lattice structures (80B, 80D, 80F), and characterized in that airflow is communicated over and around said one or more nodes and said one or more branches. a vascular engineered lattice structure (80; 280; 380; 480) formed inside of said component; and said vascular engineered lattice structure including a hollow vascular structure in which airflow is communicated inside hollow passages of one or more nodes and inside of hollow passages of one or more branches of said hollow vascular structure, said vascular engineered lattice structure (180...480) includes at least two separate axial flow vascular engineered lattice structures (80B, 80D, 80F), and characterized in that airflow is communicated over and around said one or more nodes and said one or more branches.
Mechanism for the simultaneous adjustments of gaps and/or the simultaneous adjustments of angles for the production of a multi-level or staircase structure,...... that includes: A - A technical shaft (1.1) comprised with a lengthwise slide around its base (1.2) and a lengthwise drain (1.4) where pendulums slip (5.1) and besides transversal immovable axles (1.6) which are align a lengthwise way to the center of the previous technical shaft (1.1). B - A ruler of gaps (2.1) comprised with a slide of gaps (2.2) having slanting parallel slots (2.3) and a front-back driving (2.4) provided with a blocking device (2.5) C - A ruler of angle (3.1) comprised with a slide of angle (3.2) having slanting parallel slots (3.3) and a front-back driving (3.4) provided with a blocking device (3.5) D - Handles (4.1) with knuckles at one of their tip (4.2) with... lower shafts slipping to the previous lengthwise slide (1.2) of the previous technical shaft (1.1) and with knuckles at the other tip (4.3) with...... upper shafts (4.5) which are slipping in the previous slide of angles (2.2) creating thus a sequence of the previous shafts (4.1), with a V-knuckle using an angle which can vary and keep the previous handles symmetric (4.1) E - The previous pendulums (5.1) with a bore (5.2) for each of them crossed by the previous lower shafts (4.4) and a slide (5.3) crossed by a smaller slide (5.4) which is moving in the previous slide of angle (3.2) A - A technical shaft (1.1) comprised with a lengthwise slide around its base (1.2) and a lengthwise drain (1.4) where pendulums slip (5.1) and besides transversal immovable axles (1.6) which are align a lengthwise way to the center of the previous technical shaft (1.1). B - A ruler of gaps (2.1) comprised with a slide of gaps (2.2) having slanting parallel slots (2.3) and a front-back driving (2.4) provided with a blocking device (2.5) C - A ruler of angle (3.1) comprised with a slide of angle (3.2) having slanting parallel slots (3.3) and a front-back driving (3.4) provided with a blocking device (3.5) D - Handles (4.1) with knuckles at one of their tip (4.2) with... lower shafts slipping to the previous lengthwise slide (1.2) of the previous technical shaft (1.1) and with knuckles at the other tip (4.3) with...... upper shafts (4.5) which are slipping in the previous slide of angles (2.2) creating thus a sequence of the previous shafts (4.1), with a V-knuckle using an angle which can vary and keep the previous handles symmetric (4.1) E - The previous pendulums (5.1) with a bore (5.2) for each of them crossed by the previous lower shafts (4.4) and a slide (5.3) crossed by a smaller slide (5.4) which is moving in the previous slide of angle (3.2)
An anticoagulant polypeptide consisting of: (a) the amino acid sequence shown in SEQ ID NO.1, or (b) the amino acid sequence shown in SEQ ID 2, or SEQ ID 3, or SEQ ID 4, or SEQ ID 5, or SEQ ID 6, or SEQ ID 7, or SEQ ID 8, or SEQ ID 9, or SEQ ID 10, wherein the polypeptide selectively inhibits coagulation factor XIa and has no significant inhibitory activity against coagulation factor Xa, XIIa, IIa, and VIIa/TF. (a) the amino acid sequence shown in SEQ ID NO.1, or (b) the amino acid sequence shown in SEQ ID 2, or SEQ ID 3, or SEQ ID 4, or SEQ ID 5, or SEQ ID 6, or SEQ ID 7, or SEQ ID 8, or SEQ ID 9, or SEQ ID 10, wherein the polypeptide selectively inhibits coagulation factor XIa and has no significant inhibitory activity against coagulation factor Xa, XIIa, IIa, and VIIa/TF.
A method for manufacturing laser diode devices, the method comprising: providing a substrate having a surface region; forming an epitaxial material overlying the surface region, the epitaxial material comprising a sacrificial region, an n-type cladding region, an active region comprising at least one active layer overlying the n-type cladding region, and a p-type cladding region overlying the active region; patterning the epitaxial material to form a plurality of epitaxial dice, each of the epitaxial dice corresponding to at least one laser diode device; transferring at least a portion of the plurality of epitaxial dice from the substrate to a carrier wafer by selectively etching at least a portion of the sacrificial region so as to undercut the overlying epitaxial material, and then selectively bonding to the carrier wafer the epitaxial dice that are being transferred using a bonding material that contacts the p-type cladding region, and then separating from the substrate the epitaxial dice that are being transferred; and thereafter processing the transferred epitaxial dice on the carrier wafer to form the laser diode devices, wherein the processing includes forming at least one laser ridge on each of the transferred epitaxial dice. providing a substrate having a surface region; forming an epitaxial material overlying the surface region, the epitaxial material comprising a sacrificial region, an n-type cladding region, an active region comprising at least one active layer overlying the n-type cladding region, and a p-type cladding region overlying the active region; patterning the epitaxial material to form a plurality of epitaxial dice, each of the epitaxial dice corresponding to at least one laser diode device; transferring at least a portion of the plurality of epitaxial dice from the substrate to a carrier wafer by selectively etching at least a portion of the sacrificial region so as to undercut the overlying epitaxial material, and then selectively bonding to the carrier wafer the epitaxial dice that are being transferred using a bonding material that contacts the p-type cladding region, and then separating from the substrate the epitaxial dice that are being transferred; and thereafter processing the transferred epitaxial dice on the carrier wafer to form the laser diode devices, wherein the processing includes forming at least one laser ridge on each of the transferred epitaxial dice.
A manufacturing method of a composite film used as an intermediate bonding layer of laminated glass in which a pair of glass substrates are bonded via the intermediate bonding layer, the composite film being composed of a resin intermediate film and a plastic film, the plastic film containing, as a main body, a resin whose glass transition point is 70 to 250°C, and the manufacturing method comprising: a step (a) of feeding the plastic film and the resin intermediate film which is kept at a 0.04 to 0.4 N/cm tension to a first laminating roll composed of a first roll and a second roll whose surface temperatures are adjusted to 25 to 50°C, so as to bring the plastic film into contact with the first roll and the resin intermediate film into contact with the second roll, and laminating the plastic film and the resin intermediate film by passing both the plastic film and the resin intermediate film between the both rolls of the first laminating roll in a pressurized state to obtain a laminate; and a step (b) of feeding the laminate to a second laminating roll composed of a third roll whose surface temperature is adjusted to 60°C or higher and lower than the glass transition point of the resin in the plastic film and a fourth roll whose surface temperature is adjusted lower than the surface temperature of the third roll by 15 to 30°C, so as to bring the plastic film into contact with the third roll, and passing the laminate between the both rolls of the second laminating roll in a pressurized state to obtain the composite film. a step (a) of feeding the plastic film and the resin intermediate film which is kept at a 0.04 to 0.4 N/cm tension to a first laminating roll composed of a first roll and a second roll whose surface temperatures are adjusted to 25 to 50°C, so as to bring the plastic film into contact with the first roll and the resin intermediate film into contact with the second roll, and laminating the plastic film and the resin intermediate film by passing both the plastic film and the resin intermediate film between the both rolls of the first laminating roll in a pressurized state to obtain a laminate; and a step (b) of feeding the laminate to a second laminating roll composed of a third roll whose surface temperature is adjusted to 60°C or higher and lower than the glass transition point of the resin in the plastic film and a fourth roll whose surface temperature is adjusted lower than the surface temperature of the third roll by 15 to 30°C, so as to bring the plastic film into contact with the third roll, and passing the laminate between the both rolls of the second laminating roll in a pressurized state to obtain the composite film.
Piston pump for high-density solids, having - at least one delivery cylinder (2, 3), - a delivery piston (4, 5) which is axially movable in the delivery cylinder (2, 3) and which is connected to a drive (8, 9) by way of a piston rod (6, 7), and - at least one water tank which is connected to the delivery cylinder (2, 3) and is arranged, penetrated by the piston rod (6, 7), between the delivery cylinder (2, 3) and the drive (8, 9), characterised in that at least one sensor means for detecting a change in composition of the liquid located in the water tank is provided, the sensor means being configured to determine the proportion of the high-density solids which has reached the water tank from the delivery cylinder (2, 3) using the composition of the liquid located in the water tank. - at least one delivery cylinder (2, 3), - a delivery piston (4, 5) which is axially movable in the delivery cylinder (2, 3) and which is connected to a drive (8, 9) by way of a piston rod (6, 7), and - at least one water tank which is connected to the delivery cylinder (2, 3) and is arranged, penetrated by the piston rod (6, 7), between the delivery cylinder (2, 3) and the drive (8, 9),
A coating for forming an infrared shielding film, the coating comprising: transparent oxide particles having an average primary particle diameter of 100 nm or less as determined by the particle sizing method given in the present description; and a binder containing an epoxy resin having a naphthalene skeleton in a molecular structure, a hydrolyzed condensate of a silicon alkoxide, and a solvent, wherein the transparent oxide particles are metal oxide particles selected from tin-doped indium oxide particles, antimony-doped tin oxide particles, indium oxide particles, or zinc oxide particles, a mass ratio of the transparent oxide particles to a solid content of the binder after drying and curing (transparent oxide particles/solid content of binder after drying and curing) is 5/95 to 80/20, and in the case where the solid content of the binder after drying and curing is set to 100 mass%, the amount of the epoxy resin is 40 to 90 mass% and the amount of the hydrolyzed condensate of a silicon alkoxide is 10 to 60 mass%. transparent oxide particles having an average primary particle diameter of 100 nm or less as determined by the particle sizing method given in the present description; and a binder containing an epoxy resin having a naphthalene skeleton in a molecular structure, a hydrolyzed condensate of a silicon alkoxide, and a solvent, wherein the transparent oxide particles are metal oxide particles selected from tin-doped indium oxide particles, antimony-doped tin oxide particles, indium oxide particles, or zinc oxide particles, a mass ratio of the transparent oxide particles to a solid content of the binder after drying and curing (transparent oxide particles/solid content of binder after drying and curing) is 5/95 to 80/20, and in the case where the solid content of the binder after drying and curing is set to 100 mass%, the amount of the epoxy resin is 40 to 90 mass% and the amount of the hydrolyzed condensate of a silicon alkoxide is 10 to 60 mass%.
A method for coupling a heating section and an overburden section of an insulated conductor heater for use in subsurface applications, comprising: coupling a core of the heating section to a core of the overburden section, wherein a diameter of the core of the heating section is less than a diameter of the core of the overburden section; placing a first insulation layer over the core of the heating section such that at least part of an end portion of the core of the heating section is exposed; placing a second insulation layer over the core of the overburden section such that the second insulation layer extends over the exposed portion of the core of the heating section, wherein a thickness of the second insulation layer is less than a thickness of the first insulation layer and an outer diameter of the overburden section is substantially the same as an outer diameter of the heating section; and placing an outer electrical conductor around the heating section and the overburden section; characterized in that the method further comprises compacting the insulated conductor to reduce a cross-sectional area of the outer electrical conductor and compact the first insulation layer and the second insulation layer inside the outer electrical conductor. coupling a core of the heating section to a core of the overburden section, wherein a diameter of the core of the heating section is less than a diameter of the core of the overburden section; placing a first insulation layer over the core of the heating section such that at least part of an end portion of the core of the heating section is exposed; placing a second insulation layer over the core of the overburden section such that the second insulation layer extends over the exposed portion of the core of the heating section, wherein a thickness of the second insulation layer is less than a thickness of the first insulation layer and an outer diameter of the overburden section is substantially the same as an outer diameter of the heating section; and placing an outer electrical conductor around the heating section and the overburden section; characterized in that the method further comprises compacting the insulated conductor to reduce a cross-sectional area of the outer electrical conductor and compact the first insulation layer and the second insulation layer inside the outer electrical conductor.
A method for representing a virtual figure using a parameter-controllable model, comprising the following steps: a parameter-controllable model representing a virtual figure is stored; predetermined animation patterns representing emotion and movement patterns are stored in a memory; at least one animation pattern is selected; first parameters for controlling the model are derived from the at least one selected animation pattern; furthermore second parameters for controlling the model are derived from video information of a natural person captured by a camera; and third parameters for controlling the model are derived from speech signals corresponding to speech utterances of the natural person; characterized in that the first, second and third parameters are combined according to a weighting of control parameters which are used to control the model, the first parameters defining the range of variation of the second and third parameters; the model animated on the basis of the control parameters is displayed on a display device. a parameter-controllable model representing a virtual figure is stored; predetermined animation patterns representing emotion and movement patterns are stored in a memory; at least one animation pattern is selected; first parameters for controlling the model are derived from the at least one selected animation pattern; furthermore second parameters for controlling the model are derived from video information of a natural person captured by a camera; and third parameters for controlling the model are derived from speech signals corresponding to speech utterances of the natural person; characterized in that the first, second and third parameters are combined according to a weighting of control parameters which are used to control the model, the first parameters defining the range of variation of the second and third parameters; the model animated on the basis of the control parameters is displayed on a display device.
Method for controlling a hydraulically actuated drive unit with a predetermined displacement especially for a valve or control device, wherein at least on a part of the displacement of the drive unit the displacement speed (v') is detected and compared with a predetermined target displacement speed (v) by means of a combination of distance measurement and time measurement of the displacement at at least two measuring points, by means of at least three path-dependent switches (S1 to S3) with respective switching points and a control unit, wherein a first switch and a second switch are each provided in end positions (S1 and S2) and a third switch in an intermediate position serves for the detection of the displacement time as a basis for calculation, whereupon in the case of a difference between actual value (v') and target value (v) of the speed, the controlling of the drive unit is changed such that the displacement speed (v') of the drive unit is adapted to the target value (v), so that the drive unit travels the displacement in a predetermined displacement time, wherein the displacement speed (v') of the drive unit is measured on a partial section (S1 to S3) and used as a basis for calculating the time for displacing over the remaining displacement path for satisfying the predetermined displacement time.