mhurhangee/patent-ind-claim-en huggingface dataset:
A method for providing a cardiovascular score for a patient, the method comprising: receiving stored image data, using at least one computer system, said stored image data being non-invasively obtained patient-specific image data regarding a geometry of multiple coronary arteries of the patient; creating, using the at least one computer system, a model representing at least portions of the multiple coronary arteries, by segmenting the non-invasively obtained patient-specific image data to determine the geometry of multiple coronary arteries of the patient; determining, using the at least one computer system, a value of a blood flow property for each of a plurality of portions of the multiple coronary arteries based on the patient-specific image data regarding the geometry of the multiple coronary arteries of the patient; automatically evaluating, using the at least one computer system, multiple characteristics of the portions of the multiple coronary arteries, wherein automatically evaluating the multiple characteristics comprises automatically analyzing said model with regard to one or more intensities, vessel sizes, and/or topologies; and screening vessel portions to determine portions of the multiple coronary arteries having a threshold functional significance; and for portions of the multiple coronary arteries having a threshold functional significance, generating, using at least one computer system, the cardiovascular score based on the evaluation of the multiple characteristics of said portions of the multiple coronary arteries having threshold functional significance. receiving stored image data, using at least one computer system, said stored image data being non-invasively obtained patient-specific image data regarding a geometry of multiple coronary arteries of the patient; creating, using the at least one computer system, a model representing at least portions of the multiple coronary arteries, by segmenting the non-invasively obtained patient-specific image data to determine the geometry of multiple coronary arteries of the patient; determining, using the at least one computer system, a value of a blood flow property for each of a plurality of portions of the multiple coronary arteries based on the patient-specific image data regarding the geometry of the multiple coronary arteries of the patient; automatically evaluating, using the at least one computer system, multiple characteristics of the portions of the multiple coronary arteries, wherein automatically evaluating the multiple characteristics comprises automatically analyzing said model with regard to one or more intensities, vessel sizes, and/or topologies; and screening vessel portions to determine portions of the multiple coronary arteries having a threshold functional significance; and for portions of the multiple coronary arteries having a threshold functional significance, generating, using at least one computer system, the cardiovascular score based on the evaluation of the multiple characteristics of said portions of the multiple coronary arteries having threshold functional significance.
A light receiving device comprising a pixel array unit in which pixels each having a first tap (TA) for detecting charge photoelectrically converted by a photoelectric conversion unit and a second tap (TB) for detecting charge photoelectrically converted by the photoelectric conversion unit are two-dimensionally arranged in a matrix, wherein in the pixel array unit , four vertical signal lines (VSL) for outputting a detection signal detected by any one of the first tap (TA) and the second tap (TB) to the outside of the pixel array unit are arranged for one pixel column; two vertically adjacent pixels form a pair, the first taps (TA) of the paired two pixels being connected to the same vertical signal line (VSL), and the second taps (TB) of the paired two pixels being connected to the same vertical signal line (VSL); two taps connected to one vertical signal line (VSL) share a voltage application unit; and wherein either the four vertical signal lines (VSL) are arranged such that two vertical signal lines (VSL) that are configured to output the detection signal of the first tap (TA) are adjacent to each other, and two vertical signal lines (VSL) that are configured to output the detection signal of the second tap (TB) are adjacent to each other, or the four vertical signal lines (VSL) are arranged such that a vertical signal line (VSL) that outputs the detection signal of the first tap (TA) and a vertical signal line (VSL) that outputs the detection signal of the second tap (TB) are alternately arranged. a pixel array unit in which pixels each having a first tap (TA) for detecting charge photoelectrically converted by a photoelectric conversion unit and a second tap (TB) for detecting charge photoelectrically converted by the photoelectric conversion unit are two-dimensionally arranged in a matrix, wherein in the pixel array unit , four vertical signal lines (VSL) for outputting a detection signal detected by any one of the first tap (TA) and the second tap (TB) to the outside of the pixel array unit are arranged for one pixel column; two vertically adjacent pixels form a pair, the first taps (TA) of the paired two pixels being connected to the same vertical signal line (VSL), and the second taps (TB) of the paired two pixels being connected to the same vertical signal line (VSL); two taps connected to one vertical signal line (VSL) share a voltage application unit; and wherein either the four vertical signal lines (VSL) are arranged such that two vertical signal lines (VSL) that are configured to output the detection signal of the first tap (TA) are adjacent to each other, and two vertical signal lines (VSL) that are configured to output the detection signal of the second tap (TB) are adjacent to each other, or the four vertical signal lines (VSL) are arranged such that a vertical signal line (VSL) that outputs the detection signal of the first tap (TA) and a vertical signal line (VSL) that outputs the detection signal of the second tap (TB) are alternately arranged.
Thread former having a shaft and a forming section which has a polygonal cross-section, wherein a ridge or several ridges of the thread former extend along the periphery of the forming section such that the forming section comprises at least two axially adjacent ridges or ridge sections , respectively, each of which comprising at least one recess , characterized in that at least a part of said recesses provided on axially adjacent ridge sections are arranged offset with respect to each other at different angular positions such that any coolant and/or lubricant supplied via said shaft and said recesses is forced to flow through said recesses and along groove sections between said forming ridges along a zigzag path to an axially next following recess.
A syringe type ejection device comprising: a barrel ; a nozzle disposed to face the barrel ; and an annular packing interposed between the barrel and the nozzle , the barrel having a tip end portion provided with a discharge space for discharging liquid, the tip end portion including a first surface facing the nozzle , the nozzle being provided with a holding space for holding a core , the holding space being in communication with the discharge space , the nozzle including a second surface facing the first surface , the annular packing being provided to be in contact with the first surface and the second surface to enable movement of the liquid from the discharge space to the holding space , and the syringe type ejection device further comprising a biasing portion that biases the first surface and the second surface toward the annular packing , wherein the biasing portion is provided on the nozzle , chraracterized in that the tip end portion has a large-diameter portion , and the biasing portion is flexible and engages the large-diameter portion , and the biasing portion has a plurality of hooks that engage the large-diameter portion . a barrel ; a nozzle disposed to face the barrel ; and an annular packing interposed between the barrel and the nozzle , the barrel having a tip end portion provided with a discharge space for discharging liquid, the tip end portion including a first surface facing the nozzle , the nozzle being provided with a holding space for holding a core , the holding space being in communication with the discharge space , the nozzle including a second surface facing the first surface , the annular packing being provided to be in contact with the first surface and the second surface to enable movement of the liquid from the discharge space to the holding space , and the syringe type ejection device further comprising a biasing portion that biases the first surface and the second surface toward the annular packing , wherein the biasing portion is provided on the nozzle , chraracterized in that the tip end portion has a large-diameter portion , and the biasing portion is flexible and engages the large-diameter portion , and the biasing portion has a plurality of hooks that engage the large-diameter portion .
Degassing system with a control device , the degassing system comprising a degassing tank with a first space area in that liquid is introducible and sprayable and a second space area in that the liquid from the first space area is introducible, a pipe being provided between the first area and the second area , and the first space area and the second space area being partially separated from one another by at least one separation element , wherein the at least one separation element is configured such that, in the single-stage vacuum degassing process, liquid from the first space area can overflow the at least one separation element into the second space area and that, in the two-stage degassing process, the liquid is retained in the first area by the at least one separation element , characterized in that a controllable pump is provided, being configured for pumping liquid from the first space area through the pipe to the second space area for a two-stage vacuum degassing process, when the pump is operated, and the control device is configured to control the pump such that the pump will not be operated for a single-stage vacuum degassing process and will be operated for a two-stage vacuum degassing process.
A vehicle compressed air supply device , which includes an air compressor which can be mounted on a vehicle, and which supplies compressed air discharged from the air compressor to each of a plurality of loads (51-55) of the vehicle, comprising: a junction chamber which is provided at a discharge line of the air compressor and distributes the compressed air to each of the loads (51-55); a service brake pressure protection valve which is disposed between the junction chamber and a service brake circuit provided as the loads; a parking brake pressure protection valve which is disposed between the junction chamber and a parking brake circuit provided as the load; and a valve unit which is disposed in a flow path connecting the parking brake pressure protection valve and the junction chamber , and is closed until pressure of the compressed air supplied to the service brake circuit reaches a predetermined pressure value, characterised in that the valve unit is formed of a pressure protection valve having the same structure as each of the pressure protection valves . a junction chamber which is provided at a discharge line of the air compressor and distributes the compressed air to each of the loads (51-55); a service brake pressure protection valve which is disposed between the junction chamber and a service brake circuit provided as the loads; a parking brake pressure protection valve which is disposed between the junction chamber and a parking brake circuit provided as the load; and a valve unit which is disposed in a flow path connecting the parking brake pressure protection valve and the junction chamber , and is closed until pressure of the compressed air supplied to the service brake circuit reaches a predetermined pressure value, characterised in that the valve unit is formed of a pressure protection valve having the same structure as each of the pressure protection valves .
A scroll compressor, comprising: an orbiting scroll having an orbiting wrap , and which performs an orbiting motion; a fixed scroll having a fixed wrap to form a compression chamber (V) of a suction chamber, an intermediate pressure chamber and a discharge chamber, by being engaged with the orbiting wrap; and an offset portion formed on a side surface of at least one of the fixed wrap and the orbiting wrap so as to have a distance between the two wraps (δ') greater than an orbiting radius (r) defined as a distance between the two wraps in a concentric state between the orbiting scroll and the fixed scroll, characterized in that the offset portion is formed on one side surface of the fixed wrap, opposite to another side surface of the fixed wrap which forms the suction chamber (Vs), and that the offset portion is formed such that its depth is increased towards a central region from two ends thereof in a wrap moving direction, wherein the central region is positioned on a virtual line (CL) which connects a center (O) of the fixed scroll with a suction completion point where a suction end of the orbiting wrap contacts an inner side surface of the fixed wrap. an orbiting scroll having an orbiting wrap , and which performs an orbiting motion; a fixed scroll having a fixed wrap to form a compression chamber (V) of a suction chamber, an intermediate pressure chamber and a discharge chamber, by being engaged with the orbiting wrap; and an offset portion formed on a side surface of at least one of the fixed wrap and the orbiting wrap so as to have a distance between the two wraps (δ') greater than an orbiting radius (r) defined as a distance between the two wraps in a concentric state between the orbiting scroll and the fixed scroll, characterized in that the offset portion is formed on one side surface of the fixed wrap, opposite to another side surface of the fixed wrap which forms the suction chamber (Vs), and that the offset portion is formed such that its depth is increased towards a central region from two ends thereof in a wrap moving direction, wherein the central region is positioned on a virtual line (CL) which connects a center (O) of the fixed scroll with a suction completion point where a suction end of the orbiting wrap contacts an inner side surface of the fixed wrap.
Filter device having a plurality of filter elements which can be accommodated in a filter housing with a filter inlet for a fluid to be filtered and a filter outlet for the filtered fluid, wherein the filter elements for filtration or backflushing can be flowed through in both directions via their element casing and which each have an upper and a lower element opening at their two opposing ends, wherein, in operation, at least one filter element simultaneously carries out the filtration and at least one other filter element can be backflushed for cleaning its effective filter surface by means of a backflushing device which, to promote backflushing, cooperates with a pressure control device which comprises at least one pressure control element by means of which the fluid flow along the filter element to be cleaned can be controlled during a backflushing process, wherein the filter device comprises a connecting chamber which is at least partially in communication with the upper element openings of the filter cavity of the filter elements forming the unfiltered medium side, wherein a fluid path is provided via which unfiltered medium flows into the connecting chamber during filtration, and the flow of unfiltered medium through the upper element opening associated with the filter element to be cleaned can be controlled by means of the pressure control element, wherein the backflushing device having a drain opening for the cleaning fluid can be brought under the lower element opening of the respective filter element to be cleaned, wherein the pressure control device comprises at least one control plate which, arranged inside the connecting chamber , passes laterally over the individual upper element openings of the respective filter elements to be backflushed in a predefinable sequence with increasing cover and renewed uncovering, and wherein the drain opening of the backflushing device is still at least partially in fluid-conducting communication with the lower element opening of the respective filter element to be backflushed, while the upper element opening is controlled by the pressure control device , wherein a collecting chamber of the backflushing device is formed from a recess in a cover plate which is guided by a backflush arm into which the drain opening discharges, said drain opening preferably being connected in a fluid-conducting manner to a valve control device via the backflush arm , characterised in that a circular connecting piece and the recess , which is kidney-shaped, are configured and arranged in different planes in the cover plate , which is kidney-shaped; in that the drain opening is spatially surrounded by the connecting piece ; and in that the connecting piece is provided for connecting the cover plate to the backflush arm . characterised in that a circular connecting piece and the recess , which is kidney-shaped, are configured and arranged in different planes in the cover plate , which is kidney-shaped; in that the drain opening is spatially surrounded by the connecting piece ; and in that the connecting piece is provided for connecting the cover plate to the backflush arm .
Plasma generator for generating non-thermal atmospheric-pressure plasma, comprising a piezoelectric transformer , which is subdivided in a longitudinal direction (L) into an input region and an output region , wherein the piezoelectric transformer comprises an output-side end face facing away from the input region , characterized in that the plasma generator is configured in such a way that a power sufficient for igniting a non-thermal atmospheric-pressure plasma is applied to the input region of the piezoelectric transformer only if a load is arranged in front of the output-side end face , wherein the plasma generator comprises a drive electronics unit configured to measure at least one operating parameter of the piezoelectric transformer and, on the basis of the measurement of the operating parameter, to identify a load arranged in front of the output-side end face .
Method for encoding a dimensionally stable packaging container or an associated constituent made of plastics material , wherein the packaging container is suitable for storing consumer goods such as food, detergents, etc., characterised in that a film-shaped, flat plastics material for forming the three-dimensional packaging container or the associated constituent is deep-drawn using a tool mould while, at a plurality of positions, the outer sides or the inner sides thereof undergo a first shape-changing treatment acting on the first surface thereof for producing a plurality of three-dimensional codes (2a-2d; 3a, 3b), wherein a three-dimensional code pattern (18a-18k; 19a, 19b) is incorporated into second surfaces of the tool mould or mould inserts that can be arranged therein by means of a device for a non-contact processing method, such as a laser device (4; 24), in such a way that, during a second shape-changing treatment, the surface depressions and/or surface elevations are contained in the second surface in the form of tiny dots or other tiny cross-sectional areas.
A method comprising: transmitting , by a non-access point, non-AP, multi-link device, MLD, to an access point, AP, MLD, a frame for a traffic identifier, TID, on a first link to which the TID is mapped; receiving , by the non-AP MLD from the AP MLD, a trigger frame on a second link to which the TID is not mapped; and transmitting , by the non-AP MLD to the AP MLD, in response to the trigger frame, a Quality of Service, QoS, null frame comprising the TID on the second link. transmitting , by a non-access point, non-AP, multi-link device, MLD, to an access point, AP, MLD, a frame for a traffic identifier, TID, on a first link to which the TID is mapped; receiving , by the non-AP MLD from the AP MLD, a trigger frame on a second link to which the TID is not mapped; and transmitting , by the non-AP MLD to the AP MLD, in response to the trigger frame, a Quality of Service, QoS, null frame comprising the TID on the second link.
A photonic integrated circuit , comprising : - an input interface adapted for receiving an optical input signal and splitting the optical input signal into a first mode signal and a second mode signal respectively corresponding to two distinct polarization modes of the optical input signal, - a rotator for rotating the polarization of at least one of the first mode signal and the second mode signal such as to provide the first mode signal and the second mode signal in a common polarization mode, - a combiner adapted for combining the first mode signal and the second mode signal into a combined signal, - a decohering means , and - a processing component for receiving and processing said combined signal characterized in that the decohering means comprises a first waveguide and a second waveguide one of which containing a delay line or a phase modulator, the decohering means being adapted for transforming at least one of the first mode signal and the second mode signal such that the first mode signal and the second mode signal are received by the combiner in a mutually incoherent state. - an input interface adapted for receiving an optical input signal and splitting the optical input signal into a first mode signal and a second mode signal respectively corresponding to two distinct polarization modes of the optical input signal, - a rotator for rotating the polarization of at least one of the first mode signal and the second mode signal such as to provide the first mode signal and the second mode signal in a common polarization mode, - a combiner adapted for combining the first mode signal and the second mode signal into a combined signal, - a decohering means , and - a processing component for receiving and processing said combined signal characterized in that the decohering means comprises a first waveguide and a second waveguide one of which containing a delay line or a phase modulator, the decohering means being adapted for transforming at least one of the first mode signal and the second mode signal such that the first mode signal and the second mode signal are received by the combiner in a mutually incoherent state.