mhurhangee/patent-ind-claim-en huggingface dataset:
A work allocating device for allocating mounting work of components to each of multiple mounters that configure a component mounting line , the work allocating device comprising: a specified accuracy acquiring means configured to acquire a specified component mounting accuracy of each of the mounters; a required accuracy acquiring means configured to acquire a required component mounting accuracy , the required component mounting accuracy being set based on at least one of a type of the component to be mounted or a mounting position on the board of the component to be mounted; an allocating means configured to allocate the mounting work of the components to each of the mounters based on the required component mounting accuracy and the specified component mounting accuracy; and a required accuracy setting means configured to automatically set the required component mounting accuracy based on at least one of the type of the component to be mounted or the mounting position on the board of the component to be mounted, wherein the required accuracy acquiring means acquires the required component mounting accuracy that is set by the required accuracy setting means, characterized in that the required accuracy setting means, when automatically setting the required component mounting accuracy based on the mounting position on the board of the component to be mounted, automatically sets the required component mounting accuracy to be a higher accuracy the smaller a distance is between the mounting position on the board of the component to be mounted and a component already mounted or to be mounted nearby the component to be mounted. a specified accuracy acquiring means configured to acquire a specified component mounting accuracy of each of the mounters; a required accuracy acquiring means configured to acquire a required component mounting accuracy , the required component mounting accuracy being set based on at least one of a type of the component to be mounted or a mounting position on the board of the component to be mounted; an allocating means configured to allocate the mounting work of the components to each of the mounters based on the required component mounting accuracy and the specified component mounting accuracy; and a required accuracy setting means configured to automatically set the required component mounting accuracy based on at least one of the type of the component to be mounted or the mounting position on the board of the component to be mounted, wherein the required accuracy acquiring means acquires the required component mounting accuracy that is set by the required accuracy setting means, characterized in that the required accuracy setting means, when automatically setting the required component mounting accuracy based on the mounting position on the board of the component to be mounted, automatically sets the required component mounting accuracy to be a higher accuracy the smaller a distance is between the mounting position on the board of the component to be mounted and a component already mounted or to be mounted nearby the component to be mounted.
Electronic control module , in particular for a transmission controller, comprising a printed circuit board , and at least one electronic component , in particular a sensor element, wherein at least one connecting element , which is resilient in a direction which runs perpendicularly to a surface of the printed circuit board , for electrically connecting the electronic component to the printed circuit board is arranged on the printed circuit board , wherein the connecting element is electrically and mechanically connected to the printed circuit board , in particular by means of a solder connection, preferably a reflow solder connection, wherein the electronic component is electrically connected to the connecting element via a contact area in each case, characterized in that at least one portion of the surface of the printed circuit board , one portion of the electronic component and one portion of the connecting element or of the connecting elements are potted in a fluid-tight manner with a potting material and the electronic component has a separating wall between two contact areas , wherein the potting material is arranged between the separating wall and the surface of the printed circuit board in such a way that two connecting elements are arranged in two chambers which are separated from each other by the separating wall . a printed circuit board , and at least one electronic component , in particular a sensor element, wherein at least one connecting element , which is resilient in a direction which runs perpendicularly to a surface of the printed circuit board , for electrically connecting the electronic component to the printed circuit board is arranged on the printed circuit board , wherein the connecting element is electrically and mechanically connected to the printed circuit board , in particular by means of a solder connection, preferably a reflow solder connection, wherein the electronic component is electrically connected to the connecting element via a contact area in each case, characterized in that at least one portion of the surface of the printed circuit board , one portion of the electronic component and one portion of the connecting element or of the connecting elements are potted in a fluid-tight manner with a potting material and the electronic component has a separating wall between two contact areas , wherein the potting material is arranged between the separating wall and the surface of the printed circuit board in such a way that two connecting elements are arranged in two chambers which are separated from each other by the separating wall .
A message transmission method, comprising: configuring, by a first transmission node, a system message change indication signal (S202); and transmitting, by the first transmission node, the system message change indication signal to a second transmission node (S204); characterized in that the system message change indication signal is generated by a sequence, the sequence corresponding to the system message change indication signal comprises at least one of a zadoff-chu, ZC, sequence, an M sequence, or a Gold sequence and sequences of system message change indication signals corresponding to different cells are different. configuring, by a first transmission node, a system message change indication signal (S202); and transmitting, by the first transmission node, the system message change indication signal to a second transmission node (S204); characterized in that the system message change indication signal is generated by a sequence, the sequence corresponding to the system message change indication signal comprises at least one of a zadoff-chu, ZC, sequence, an M sequence, or a Gold sequence and sequences of system message change indication signals corresponding to different cells are different.
Ultrasonic transducer for an ultrasonic flowmeter, with an electromechanical transducer element and resources that are suitable for pretensioning the electromechanical transducer element against the ultrasonic window , wherein a first surface of the electromechanical transducer element points against the ultrasonic window , characterized in that a second surface - situated opposite the first surface - of the electromechanical transducer element is divided into four segments of the same size by deep grooves, which are galvanically connected to the resources that are suitable for pretensioning.
A computer-implemented method comprising: receiving an input image; generating progressively blurred images from the input image by filtering the input image with a Gaussian filter using a Gaussian scale space of predefined intervals; detecting blobs in the blurred images using a Maximally Stable Extremal Regions algorithm; outputting ellipses over the blobs; removing ellipses that are non-words by eliminating ellipses with an aspect ratio falling outside a specific interval; detecting, using one or more computing devices, a word in the input image based on the remaining ellipse(s); normalizing the orientation of the word, using the one or more computing devices; performing optical character recognition on the word; and outputting, using the one or more computing devices, text associated with the word. receiving an input image; generating progressively blurred images from the input image by filtering the input image with a Gaussian filter using a Gaussian scale space of predefined intervals; detecting blobs in the blurred images using a Maximally Stable Extremal Regions algorithm; outputting ellipses over the blobs; removing ellipses that are non-words by eliminating ellipses with an aspect ratio falling outside a specific interval; detecting, using one or more computing devices, a word in the input image based on the remaining ellipse(s); normalizing the orientation of the word, using the one or more computing devices; performing optical character recognition on the word; and outputting, using the one or more computing devices, text associated with the word.
A computer-implemented method for storing blockchain data, the method comprising: determining , by a first blockchain node, block data associated with a current block of a blockchain; performing , by the first blockchain node, error correction coding of the block data to generate encoded data; dividing , by the first blockchain node based on one or more predetermined rules, the encoded data to a plurality of data sets, wherein the one or more predetermined rules comprise one or more instructions for dividing the encoded data to the plurality of data sets based on a quantity of blockchain nodes of a blockchain network and assignments of one or more data sets of the plurality of data sets to generate an equal distribution of data to be stored by each blockchain node of the quantity of blockchain nodes; storing , by the first blockchain node based on the one or more predetermined rules, only one data set of the plurality of data sets; hashing , by the first blockchain node, each remaining data set of the plurality of data sets to generate one or more hash values corresponding to remaining data sets of the plurality of data sets; and storing , by the first blockchain node, the one or more hash values. determining , by a first blockchain node, block data associated with a current block of a blockchain; performing , by the first blockchain node, error correction coding of the block data to generate encoded data; dividing , by the first blockchain node based on one or more predetermined rules, the encoded data to a plurality of data sets, wherein the one or more predetermined rules comprise one or more instructions for dividing the encoded data to the plurality of data sets based on a quantity of blockchain nodes of a blockchain network and assignments of one or more data sets of the plurality of data sets to generate an equal distribution of data to be stored by each blockchain node of the quantity of blockchain nodes; storing , by the first blockchain node based on the one or more predetermined rules, only one data set of the plurality of data sets; hashing , by the first blockchain node, each remaining data set of the plurality of data sets to generate one or more hash values corresponding to remaining data sets of the plurality of data sets; and storing , by the first blockchain node, the one or more hash values.
A computer-implemented method comprising: receiving a software interrupt; responsive to receiving the software interrupt, determining whether the software interrupt is latency sensitive; responsive to determining the software interrupt is latency sensitive, determining whether a current processor core is interrupt heavy, wherein the determining a current processor core is interrupt heavy comprises analyzing a data structure, said data structure associated with said current processor core and including a flag that indicates whether the current processor core is busy or not, and wherein the flag indicates that the current processor core is busy if a predefined number of interrupts exceeds a predefined rate; responsive to determining the current processor core is interrupt heavy, determining a desired processor core other than the current processor core to run the software interrupt; and responsive to determining the desired processor core other than the current processor core, executing the software interrupt on the desired processor core. receiving a software interrupt; responsive to receiving the software interrupt, determining whether the software interrupt is latency sensitive; responsive to determining the software interrupt is latency sensitive, determining whether a current processor core is interrupt heavy, wherein the determining a current processor core is interrupt heavy comprises analyzing a data structure, said data structure associated with said current processor core and including a flag that indicates whether the current processor core is busy or not, and wherein the flag indicates that the current processor core is busy if a predefined number of interrupts exceeds a predefined rate; responsive to determining the current processor core is interrupt heavy, determining a desired processor core other than the current processor core to run the software interrupt; and responsive to determining the desired processor core other than the current processor core, executing the software interrupt on the desired processor core.
A method for imaging a sample with charged particle beams, comprising: splitting charged particles generated from a charged particle source into a first charged particle beam and a second charged particle beam ; acquiring a diffraction pattern by irradiating a region of interest (ROI) of the sample with the first charged particle beam ; and acquiring a sample image by irradiating the ROI with a second charged particle beam . splitting charged particles generated from a charged particle source into a first charged particle beam and a second charged particle beam ; acquiring a diffraction pattern by irradiating a region of interest (ROI) of the sample with the first charged particle beam ; and acquiring a sample image by irradiating the ROI with a second charged particle beam .
A process for preparing bromine-containing polymer, comprising a Friedel-Crafts alkylation reaction of tetrabromoxylylene dihalide, or tetrabromoxylylene dihalide in combination with pentabromobenzyl halide, with a reactant having one or more six-membered aromatic rings, wherein the reaction takes place in a solvent in the presence of a Friedel-Crafts catalyst, and isolating from the reaction mixture the bromine-containing polymer.
A surgical instrument , comprising: a housing ; a motor ; and a battery assembly attachable to said housing of said surgical instrument , said battery assembly comprising: a battery cell configured to provide electrical energy to said motor ; and a battery housing configured to support said battery cell ; and a shock absorbing element surrounding said battery housing and configured to absorb shock provided by an impact force applied to the battery housing , wherein said shock absorbing element comprises a lattice structure and is configured to crumple when an impact force is applied to said shock absorbing element . a housing ; a motor ; and a battery assembly attachable to said housing of said surgical instrument , said battery assembly comprising: a battery cell configured to provide electrical energy to said motor ; and a battery housing configured to support said battery cell ; and a shock absorbing element surrounding said battery housing and configured to absorb shock provided by an impact force applied to the battery housing , wherein said shock absorbing element comprises a lattice structure and is configured to crumple when an impact force is applied to said shock absorbing element . a battery cell configured to provide electrical energy to said motor ; and a battery housing configured to support said battery cell ; and a shock absorbing element surrounding said battery housing and configured to absorb shock provided by an impact force applied to the battery housing , wherein said shock absorbing element comprises a lattice structure and is configured to crumple when an impact force is applied to said shock absorbing element .
A therapeutically effective amount of C1 esterase inhibitor (C1INH), for use in the treatment of a patient suffering from respiratory distress, wherein the respiratory distress is related to a coronavirus infection.
A vacuum pump having a rotor such that a cylindrical rotor formed in a substantially cylindrical shape out of a fiber-reinforced composite material is joined to a rotor of another material and forming a thread groove pump or a Gaede pump, wherein said cylindrical rotor is formed as a multilayer structure that includes hoop layers in which fibers are oriented in less than 45 degrees with respect to a circumferential direction, and characterised in that a protective countermeasure is provided at an outer periphery of an outermost layer, from among said hoop layers, so as to prevent shredding fibers in the layer that constitutes said outermost layer at least at a joining portion of said cylindrical rotor, wherein said protective countermeasure is one of: a) a resin layer provided outside of said hoop layers so as to reduce irregularities in the surface of said cylindrical rotor at least at said joining portion in said cylindrical rotor; or b) a helical layer in which fibers are oriented in 45 degrees or more with respect to the circumferential direction and which is provided outside of said hoop layers at least at said joining portion in said cylindrical rotor; or c) a range of a removal processing the outer periphery of said cylindrical rotor is set to at least a part of a portion other than said joining portion, wherein said cylindrical rotor is formed in such a manner that said hoop layers constitute an outermost layer. a) a resin layer provided outside of said hoop layers so as to reduce irregularities in the surface of said cylindrical rotor at least at said joining portion in said cylindrical rotor; or b) a helical layer in which fibers are oriented in 45 degrees or more with respect to the circumferential direction and which is provided outside of said hoop layers at least at said joining portion in said cylindrical rotor; or c) a range of a removal processing the outer periphery of said cylindrical rotor is set to at least a part of a portion other than said joining portion, wherein said cylindrical rotor is formed in such a manner that said hoop layers constitute an outermost layer.
A coaxial catheter system for performing a medical procedure in a cerebral vessel of a patient, the system comprising: a catheter comprising: a flexible distal luminal portion having a proximal tubular region and a distal tubular region , the proximal tubular region having a proximal end defining a proximal opening and the distal tubular region having a distal end defining a distal opening, the distal tubular region having a smaller outer diameter and the proximal tubular region having a larger outer diameter, wherein a single lumen extends between the proximal opening and the distal opening; and a proximal extension extending proximally from a point of attachment adjacent the proximal opening, wherein the proximal extension is less flexible than the flexible distal luminal portion and is configured to control movement of the catheter, wherein the proximal extension has an outer diameter at the point of attachment that is smaller than an outer diameter of the distal luminal portion at the point of attachment; and a catheter advancement element comprising: a flexible elongate body having a proximal end region, an outer diameter, and a tapered distal tip portion ; and a proximal portion extending proximally from the proximal end region to a proximal-most end of the catheter advancement element, wherein the catheter advancement element is sized to be positioned coaxially through the catheter lumen such that the tapered distal tip portion extends distal to the distal end of the distal luminal portion, and wherein the distal luminal portion of the catheter has a length between 35 cm and 60 cm, or greater than 40 cm up to less than a working length of a sheath body of an access sheath through which the system is advanced wherein the system includes said access sheath , so as to allow the distal end of the distal luminal portion to reach a target site within the cerebral vessel with the point of attachment between the distal luminal portion and the proximal extension positioned proximal to the brachiocephalic take-off when advanced through the access sheath positioned within a femoral access site.
A method for prostate specific antigen (PSA) analysis from urine sample, preferably from urine sample of a male mammal, wherein said method comprises the steps of - providing urine sample, - preparing said urine sample for analysis, - separating PSA from said urine sample by affinity separation using PSA-binding molecules to obtain enriched PSA, - releasing glycans from the enriched PSA to obtain released PSA-glycans, - analyzing the released glycans by separation with capillary electrophoresis (CE) wherein detection of the separated released glycans is carried out by fluorescent detection. - providing urine sample, - preparing said urine sample for analysis, - separating PSA from said urine sample by affinity separation using PSA-binding molecules to obtain enriched PSA, - releasing glycans from the enriched PSA to obtain released PSA-glycans, - analyzing the released glycans by separation with capillary electrophoresis (CE) wherein detection of the separated released glycans is carried out by fluorescent detection.
A method for contactless determination of heat transition coefficients U at a wall of a room, comprising the following steps: - measuring the air temperature T i in the room, - providing a further air temperature T e1 of a further room adjacent to the wall, or an external air temperature T e2 , - creating at least one panorama infrared image of the room from any position in the room, wherein the panorama infrared image at least comprises a horizontally extending 360° panorama, - evaluating the panorama infrared image and determining a spatially resolved wall temperature T s from the panorama infrared image as well as determining the spatially resolved reflected temperature T ref , - determining the heat transition coefficients U of the wall by the air temperature T i , the further air temperature T e1 or the external air temperature T e2 , the spatially resolved wall temperature T s as well as the spatially resolved reflected temperature T ref . - measuring the air temperature T i in the room, - providing a further air temperature T e1 of a further room adjacent to the wall, or an external air temperature T e2 , - creating at least one panorama infrared image of the room from any position in the room, wherein the panorama infrared image at least comprises a horizontally extending 360° panorama, - evaluating the panorama infrared image and determining a spatially resolved wall temperature T s from the panorama infrared image as well as determining the spatially resolved reflected temperature T ref , - determining the heat transition coefficients U of the wall by the air temperature T i , the further air temperature T e1 or the external air temperature T e2 , the spatially resolved wall temperature T s as well as the spatially resolved reflected temperature T ref .