mhurhangee/ep-ind-claims huggingface dataset:
A method for horizontally electrochemically depositing metal on a cathode surface (350, 360) of a crystalline silicon solar cell (90, 200), wherein the cathode surface comprises an upper cathode surface and a lower cathode surface, comprising the steps of: - providing an upper metal anode, a lower metal anode, and an electrolyte solution wherein the upper metal anode and the lower metal anode correspond to respectively the upper and the lower cathode surface in the process of electrochemically depositing metal but can be disposed at any suitable place; - enabling the electrolyte solution to contact the upper metal anode and continuously flow down to the upper cathode surface of the crystalline silicon solar cell being prepared for the metal electrochemical deposition process, thereby disposing an electrolyte solution layer on the upper cathode surface of the crystalline silicon solar cell, wherein the electrolyte solution contacts the upper metal anode, and after the electrolyte solution contacts the upper metal anode, the electrolyte solution is transported to the upper cathode surface and continuously flows down to the upper cathode surface of the crystalline silicon solar cell; and - soaking the lower metal anode in the electrolyte solution, and having the electrolyte solution in contact with the lower cathode surface of the crystalline silicon solar cell being prepared for the metal electrochemical deposition process; or spraying the electrolyte solution continuously upwards to the lower cathode surface of the crystalline silicon solar cell after the electrolyte solution contacts the lower metal anode. - providing an upper metal anode, a lower metal anode, and an electrolyte solution wherein the upper metal anode and the lower metal anode correspond to respectively the upper and the lower cathode surface in the process of electrochemically depositing metal but can be disposed at any suitable place; - enabling the electrolyte solution to contact the upper metal anode and continuously flow down to the upper cathode surface of the crystalline silicon solar cell being prepared for the metal electrochemical deposition process, thereby disposing an electrolyte solution layer on the upper cathode surface of the crystalline silicon solar cell, wherein the electrolyte solution contacts the upper metal anode, and after the electrolyte solution contacts the upper metal anode, the electrolyte solution is transported to the upper cathode surface and continuously flows down to the upper cathode surface of the crystalline silicon solar cell; and - soaking the lower metal anode in the electrolyte solution, and having the electrolyte solution in contact with the lower cathode surface of the crystalline silicon solar cell being prepared for the metal electrochemical deposition process; or spraying the electrolyte solution continuously upwards to the lower cathode surface of the crystalline silicon solar cell after the electrolyte solution contacts the lower metal anode.
A method for operating a road paver comprising paving a road surface with the road paver along a road bed, wherein a paving screed of the road paver having at least one lateral extension part (31, 33) is pulled over the road bed along a paving direction of travel to compact the road surface, characterized in that the following steps are carried out by means of a curve correction unit: determining a value defining an actual steering angle of the road paver; based on the determined value calculating an expected offset of the paving screed which results from a yawing movement of the paver during steering with the steering angle defined by the determined value; and automatically correcting a lateral extension position of the at least one lateral extension part (31, 33) of the paving screed based on the expected offset so that the offset is compensated. determining a value defining an actual steering angle of the road paver; based on the determined value calculating an expected offset of the paving screed which results from a yawing movement of the paver during steering with the steering angle defined by the determined value; and automatically correcting a lateral extension position of the at least one lateral extension part (31, 33) of the paving screed based on the expected offset so that the offset is compensated.
A method for forming a composite component, comprising: laying up a plurality of composite plies to form a composite ply layup; partially processing the composite ply layup to form a green state layup; machining the green state layup to define a machined surface along the machined green state layup; machining a sub-assembly in a green state to form a machined sub-assembly having a machined surface; assembling the machined green state layup with the machined sub-assembly (108, 114, 116); and processing the assembled machined green state layup and the machined sub-assembly (108, 114, 116) to form the composite component, wherein machining the green state layup comprises removing at least a portion of a ply of the green state layup to shape the machined surface along the_machined green state layup to complement a contour of the machined sub-assembly against which the machined surface along the machined green state layup is positioned, wherein machining the sub-assembly comprises removing at least a portion of the sub-assembly to form the machined surface of the machined sub-assembly, and wherein assembling the machined green state layup with the machined sub-assemblies (108, 114, 116) comprises positioning at least a portion of the machined surface of the machined green state layup against at least a portion of the machined surface of the machined sub-assembly (108, 114, 116) to form an assembly having an interior machined interface comprising the machined surface of the machined green state layup and the machined surface of the machined sub-assembly. laying up a plurality of composite plies to form a composite ply layup; partially processing the composite ply layup to form a green state layup; machining the green state layup to define a machined surface along the machined green state layup; machining a sub-assembly in a green state to form a machined sub-assembly having a machined surface; assembling the machined green state layup with the machined sub-assembly (108, 114, 116); and processing the assembled machined green state layup and the machined sub-assembly (108, 114, 116) to form the composite component, wherein machining the green state layup comprises removing at least a portion of a ply of the green state layup to shape the machined surface along the_machined green state layup to complement a contour of the machined sub-assembly against which the machined surface along the machined green state layup is positioned, wherein machining the sub-assembly comprises removing at least a portion of the sub-assembly to form the machined surface of the machined sub-assembly, and wherein assembling the machined green state layup with the machined sub-assemblies (108, 114, 116) comprises positioning at least a portion of the machined surface of the machined green state layup against at least a portion of the machined surface of the machined sub-assembly (108, 114, 116) to form an assembly having an interior machined interface comprising the machined surface of the machined green state layup and the machined surface of the machined sub-assembly.
A hand-holdable vacuum cleaner comprising a main body with a main axis, a handle, a cyclonic separation apparatus, a dirty air duct with a dirty air inlet at one end of the main body, and a motor coupled to a fan for generating air flow through the vacuum cleaner, the motor having a drive shaft with a longitudinal central axis, the cyclonic separation apparatus comprising: a first cyclonic separating unit comprising a hollow substantially cylindrical dirt container (320,330) with a longitudinal central axis and an air inlet port arranged tangentially to the cylindrical dirt container; and a second cyclonic separating unit comprising a plurality of cyclones arranged in a generally circular array about the central axis, wherein each cyclone has an air inlet port and an air outlet port, wherein the second cyclonic separating unit receives air flow downstream from the first cyclonic separating unit and wherein the second cyclonic separating unit has a higher separation efficiency than the first cyclonic separating unit, the second separating unit being located within the dirt container; wherein the central axis of the dirt container (320,330) is arranged transverse to the main axis of the main body, and the central axis of the dirt container (320,330) and the longitudinal central axis of the drive shaft are arranged parallel to each other. a first cyclonic separating unit comprising a hollow substantially cylindrical dirt container (320,330) with a longitudinal central axis and an air inlet port arranged tangentially to the cylindrical dirt container; and a second cyclonic separating unit comprising a plurality of cyclones arranged in a generally circular array about the central axis, wherein each cyclone has an air inlet port and an air outlet port, wherein the second cyclonic separating unit receives air flow downstream from the first cyclonic separating unit and wherein the second cyclonic separating unit has a higher separation efficiency than the first cyclonic separating unit, the second separating unit being located within the dirt container; wherein the central axis of the dirt container (320,330) is arranged transverse to the main axis of the main body, and the central axis of the dirt container (320,330) and the longitudinal central axis of the drive shaft are arranged parallel to each other.
An object-detection system configured to detect an object proximate to a vehicle, said system comprising: a radar-sensor suitable for mounting on a vehicle and configured to detect a radar-signal reflected by an object in a radar-field-of-view, said radar-signal indicative of a Range Detection Unit, RDU, range and a direction to the object relative to the vehicle; a camera configured to capture an image of a camera-field-of-view that overlaps the radar-field-of-view; and a controller in communication with the radar-sensor and the camera, said controller configured to determine a range-map for the image based on the RDU range and the direction, define a detection-zone in the image based on the range-map, and process only the detection-zone of the image to determine an identity of the object, wherein the radar-signal is also indicative of a RDU range-rate of the object, and the controller is further configured to determine a Time to contact, TTC, based on the RDU range and the RDU range-rate, wherein said system is configured to determine a speed of the object in the image from the RDU range-rate to help vision tracking by limiting a search space in a subsequent image. a radar-sensor suitable for mounting on a vehicle and configured to detect a radar-signal reflected by an object in a radar-field-of-view, said radar-signal indicative of a Range Detection Unit, RDU, range and a direction to the object relative to the vehicle; a camera configured to capture an image of a camera-field-of-view that overlaps the radar-field-of-view; and a controller in communication with the radar-sensor and the camera, said controller configured to determine a range-map for the image based on the RDU range and the direction, define a detection-zone in the image based on the range-map, and process only the detection-zone of the image to determine an identity of the object, wherein the radar-signal is also indicative of a RDU range-rate of the object, and the controller is further configured to determine a Time to contact, TTC, based on the RDU range and the RDU range-rate, wherein said system is configured to determine a speed of the object in the image from the RDU range-rate to help vision tracking by limiting a search space in a subsequent image.
A method for personalized whole-body circulation calculation, the method comprising: capturing cardiovascular spatial data of a patient with a medical scanner; capturing cardiac electrophysiology data of the patient with a cardiac electrophysiology sensor; capturing pressure data of the patient with a pressure sensor; measuring a cardiac hemodynamic parameter from the cardiovascular spatial data; determining time-varying flow rate for the heart, pressure variation for the heart, cardiovascular systemic impedance, and cardiovascular pulmonary impedance personalized to the patient from the cardiovascular spatial data, the ECG data, and the pressure data; computing a metric with a multi-scale whole-body circulation model as a function of the time-varying flow rate for the heart, pressure variation for the heart, cardiovascular systemic impedance, and cardiovascular pulmonary impedance personalized to the patient; wherein the multi-scale whole-body circulation model comprises a cardiovascular system model coupled to one or more models representing the cardiovascular regulatory systems, and a bidirectional exchange of information between the systems leads to a continuous adaptation of the cardiovascular activity and operation, wherein the flow rate or volume change and pressure data from the cardiovascular system model are provided to the one or more regulatory system models and the one or more regulatory system models return adapted or altered values for use in the cardiovascular system model, and indicating the metric on a display for the patient. capturing cardiovascular spatial data of a patient with a medical scanner; capturing cardiac electrophysiology data of the patient with a cardiac electrophysiology sensor; capturing pressure data of the patient with a pressure sensor; measuring a cardiac hemodynamic parameter from the cardiovascular spatial data; determining time-varying flow rate for the heart, pressure variation for the heart, cardiovascular systemic impedance, and cardiovascular pulmonary impedance personalized to the patient from the cardiovascular spatial data, the ECG data, and the pressure data; computing a metric with a multi-scale whole-body circulation model as a function of the time-varying flow rate for the heart, pressure variation for the heart, cardiovascular systemic impedance, and cardiovascular pulmonary impedance personalized to the patient; wherein the multi-scale whole-body circulation model comprises a cardiovascular system model coupled to one or more models representing the cardiovascular regulatory systems, and a bidirectional exchange of information between the systems leads to a continuous adaptation of the cardiovascular activity and operation, wherein the flow rate or volume change and pressure data from the cardiovascular system model are provided to the one or more regulatory system models and the one or more regulatory system models return adapted or altered values for use in the cardiovascular system model, and indicating the metric on a display for the patient.
A printed circuit board (100, 300) comprising: at least one electrical signal trace (108, 308) elongate along a first direction; an electrically conductive ground layer disposed below the first electrical signal trace (108, 308) along a second direction that is perpendicular to the first direction, the electrically conductive ground layer extending along a plane that is normal to the second direction; a first linear array that includes at least one electrically conductive signal via and at least one electrically conductive ground via, the first linear array oriented along the first direction; a second linear array that includes at least one electrically conductive signal via and at least one electrically conductive ground via, the second linear array oriented along the first direction, the second linear array spaced from and consecutive with the first linear array along a third direction that is perpendicular with respect to each of the first and second directions, wherein the at least one electrical signal trace (108, 308) is disposed between the first and second linear arrays with respect to the third direction, and characterised by at least one group of ground isolation vias (g) that is oriented along the first direction, the at least one group of ground isolation vias (g) disposed between the first electrical signal trace (108, 308) and the second linear array with respect to the third direction. at least one electrical signal trace (108, 308) elongate along a first direction; an electrically conductive ground layer disposed below the first electrical signal trace (108, 308) along a second direction that is perpendicular to the first direction, the electrically conductive ground layer extending along a plane that is normal to the second direction; a first linear array that includes at least one electrically conductive signal via and at least one electrically conductive ground via, the first linear array oriented along the first direction; a second linear array that includes at least one electrically conductive signal via and at least one electrically conductive ground via, the second linear array oriented along the first direction, the second linear array spaced from and consecutive with the first linear array along a third direction that is perpendicular with respect to each of the first and second directions, wherein the at least one electrical signal trace (108, 308) is disposed between the first and second linear arrays with respect to the third direction, and characterised by at least one group of ground isolation vias (g) that is oriented along the first direction, the at least one group of ground isolation vias (g) disposed between the first electrical signal trace (108, 308) and the second linear array with respect to the third direction.
An amine co-initiator containing dental composition capable of effectively neutralizing any residual acid and at the same time effectively preventing the similar neutralizing reaction from the amine coinitiator, comprising: a. 0.5-10% wt/wt of non-polymerizable acid-neutralizing resin or 0.5-99% wt/wt of an acid-neutralizing polymerizable resin or a mixture of and, featuring a moiety that is capable to effectively neutralizing an acid group, where the neutralized acid group is a carboxylic acid, a sulphonic acid, a phosphonic acid or a phosphoric acid, b. 5-90% wt/wt of mixed conventional polymerizable resins; c. 0.01-5.00% of initiators and other additives; d. 0-90% wt/wt of a plurality of filler particles ranged from 10 nm-50 micron; wherein the non-polymerizable acid-neutralizing resin is selected from the group consisting of and and wherein the polymerizable acid-neutralizing resin is selected from the group consisting of a. 0.5-10% wt/wt of non-polymerizable acid-neutralizing resin or 0.5-99% wt/wt of an acid-neutralizing polymerizable resin or a mixture of and, featuring a moiety that is capable to effectively neutralizing an acid group, where the neutralized acid group is a carboxylic acid, a sulphonic acid, a phosphonic acid or a phosphoric acid, b. 5-90% wt/wt of mixed conventional polymerizable resins; c. 0.01-5.00% of initiators and other additives; d. 0-90% wt/wt of a plurality of filler particles ranged from 10 nm-50 micron;
A DNA molecule comprising a DNA sequence comprising SEQ ID NO: 272 or 790, wherein said sequence is operably linked to a heterologous transcribable polynucleotide molecule and wherein expression of said heterologous transcribable polynucleotide molecule is either driven by a constitutive promoter or by an enhanced root promoter.
A method comprising: a security camera within a residence capturing a sequence of images of a secured area of the residence; an identification processor of the security camera identifying moving objects within the sequence of images as human or nonhuman; a programmed processor of the security camera determining a presence of an authorized person within the residence; and the programmed processor blurring or reducing a picture quality of all of the moving objects identified as human based upon the presence of the authorized person within the residence. a security camera within a residence capturing a sequence of images of a secured area of the residence; an identification processor of the security camera identifying moving objects within the sequence of images as human or nonhuman; a programmed processor of the security camera determining a presence of an authorized person within the residence; and the programmed processor blurring or reducing a picture quality of all of the moving objects identified as human based upon the presence of the authorized person within the residence.
A metallic frame for chairs with tubular elements, comprising two inverted V-shaped elements that form the legs of a chair, which are parallel and joined substantially at their inside curvature to a rodlike crossmember, two L-shaped elements connected by said crossmember on which they are arranged in a parallel configuration so as to form a support for the back and for the seat, respectively with their first portions, which are substantially vertical, and second portions, which are substantially horizontal, the frame being characterized in that each one of said inverted V-shaped elements has a reinforcement recess on the inner side of each one of two straight portions that form a front leg and a rear leg of said frame.
An optical interconnection device comprising: an LSI circuit electrically connected to an electric wiring board; plurality of optical modules arranged on a periphery of the LSI circuit; and liquid cooling mechanisms respectively placed on the LSI circuit and the optical modules, characterized in that the plurality of optical modules is arranged dispersed in a rectangular shape and the liquid cooling mechanisms include a cooling pipe arranged in a linear fashion along each side of the rectangular shape. an LSI circuit electrically connected to an electric wiring board; plurality of optical modules arranged on a periphery of the LSI circuit; and liquid cooling mechanisms respectively placed on the LSI circuit and the optical modules, characterized in that the plurality of optical modules is arranged dispersed in a rectangular shape and the liquid cooling mechanisms include a cooling pipe arranged in a linear fashion along each side of the rectangular shape.
A computer program product comprising a computer usable medium having computer readable program code embodied therein, the computer readable program code adapted to be executed by a computer to implement a method for producing a patient-specific treatment plan for photodynamic therapy of prostate cancer, the method comprising: setting the total length of illuminating fibers needed for effective therapy based upon the planned treatment volume and a prior-determined treatment-effective light density index, LDI, threshold, wherein the treatment-effective LDI threshold is prior-determined from historical data from use of the same photosensitizing agent, and wherein the total length of illuminating fibers is calculated as the product of PTV and said prior-determined treatment-effective light density index threshold, or scalar multiple thereof. setting the total length of illuminating fibers needed for effective therapy based upon the planned treatment volume and a prior-determined treatment-effective light density index, LDI, threshold, wherein the treatment-effective LDI threshold is prior-determined from historical data from use of the same photosensitizing agent, and wherein the total length of illuminating fibers is calculated as the product of PTV and said prior-determined treatment-effective light density index threshold, or scalar multiple thereof.