mhurhangee/patent-ind-claim-en huggingface dataset:
A system configured to automatically evaluate cardiovascular treatment options for a patient, the system comprising: at least one computer system configured to: create a three-dimensional model representing at least a portion of the patient's heart or vasculature based on patient-specific data regarding a geometry of the patient's heart or vasculature; create a reduced order model relating to a blood flow characteristic of the patient's heart or vasculature, based on the three-dimensional model; modify the reduced order model automatically for each of a plurality of stent or bypass treatment options for treating at least a portion of the patient's heart, using respective resistance values estimated to be associated with a type and location of the treatment option; determine resistance values associated with said plurality of stent or bypass treatment options, for use in modifying the reduced order model, from historical data of known resistance values associated with a known dimension and geometry of previously implemented stents or bypass grafts; determine, for each of the plurality of stent or bypass treatment options, a respective value of a blood flow characteristic, by solving the reduced order model modified using the respective determined resistance value estimated for said treatment option; and automatically identify one of the plurality of stent or bypass treatment options that optimizes an objective function of said determined blood flow characteristic of the patient's heart or vasculature. create a three-dimensional model representing at least a portion of the patient's heart or vasculature based on patient-specific data regarding a geometry of the patient's heart or vasculature; create a reduced order model relating to a blood flow characteristic of the patient's heart or vasculature, based on the three-dimensional model; modify the reduced order model automatically for each of a plurality of stent or bypass treatment options for treating at least a portion of the patient's heart, using respective resistance values estimated to be associated with a type and location of the treatment option; determine resistance values associated with said plurality of stent or bypass treatment options, for use in modifying the reduced order model, from historical data of known resistance values associated with a known dimension and geometry of previously implemented stents or bypass grafts; determine, for each of the plurality of stent or bypass treatment options, a respective value of a blood flow characteristic, by solving the reduced order model modified using the respective determined resistance value estimated for said treatment option; and automatically identify one of the plurality of stent or bypass treatment options that optimizes an objective function of said determined blood flow characteristic of the patient's heart or vasculature.
A network device for Remote Direct Memory Access, RDMA, wherein the network device is configured to: generate an outgoing packet according to a QUIC request or event, and transmit the outgoing packet to another network device , wherein the outgoing packet is a Quick User datagram protocol Internet Connection, QUIC based, packet, which comprises a User Datagram Protocol, UDP, header , a QUIC header and a QUIC payload , wherein the UDP header of the outgoing packet comprises an indication that indicates that the QUIC payload of the outgoing packet comprises one or more RDMA transactions, wherein the QUIC payload of the outgoing packet comprises the one or more RDMA transactions, and wherein the outgoing packet uses a dedicated QUIC version number for RDMA over QUIC transport. generate an outgoing packet according to a QUIC request or event, and transmit the outgoing packet to another network device , wherein the outgoing packet is a Quick User datagram protocol Internet Connection, QUIC based, packet, which comprises a User Datagram Protocol, UDP, header , a QUIC header and a QUIC payload , wherein the UDP header of the outgoing packet comprises an indication that indicates that the QUIC payload of the outgoing packet comprises one or more RDMA transactions, wherein the QUIC payload of the outgoing packet comprises the one or more RDMA transactions, and wherein the outgoing packet uses a dedicated QUIC version number for RDMA over QUIC transport.
An emissions test apparatus comprising: a filter housing having at least one of a first RFID tag and a first bar code identifying said filter housing ; a filter medium selectively disposed within said filter housing and including at least one of a second RFID tag and a second bar code identifying said filter medium ; and a controller configured to link said filter housing and said filter medium based on information provided by said at least one of said first RFID tag and said first bar code and said at least one of said second RFID tag and said second bar code , wherein said emissions test apparatus further includes a test fixture selectively connected to said filter housing to selectively expose said filter housing and said filter medium to a fluid stream of exhaust gas produced by an engine mixed with ambient air, said filter housing including a first fitting disposed at a first end and a second fitting disposed at a second end , wherein said first fitting and said second fitting selectively connect said filter housing to said test fixture, said filter housing including a third bar code identifying said filter housing and said test fixture including a fourth bar code identifying said fluid stream, wherein said controller is configured to link said filter housing to said test fixture based on information provided by said third bar code and said fourth bar code . a filter housing having at least one of a first RFID tag and a first bar code identifying said filter housing ; a filter medium selectively disposed within said filter housing and including at least one of a second RFID tag and a second bar code identifying said filter medium ; and a controller configured to link said filter housing and said filter medium based on information provided by said at least one of said first RFID tag and said first bar code and said at least one of said second RFID tag and said second bar code , wherein said emissions test apparatus further includes a test fixture selectively connected to said filter housing to selectively expose said filter housing and said filter medium to a fluid stream of exhaust gas produced by an engine mixed with ambient air, said filter housing including a first fitting disposed at a first end and a second fitting disposed at a second end , wherein said first fitting and said second fitting selectively connect said filter housing to said test fixture, said filter housing including a third bar code identifying said filter housing and said test fixture including a fourth bar code identifying said fluid stream, wherein said controller is configured to link said filter housing to said test fixture based on information provided by said third bar code and said fourth bar code .
A heat relaxed assembly comprising a plurality of separable layer packets, each layer packet comprising a polyester film, the polyester film comprising one or more semicrystalline polyesters having a T g and a T m , having first and second major surfaces and a release layer having first and second major surfaces, the first major surface of the release layer being attached to the second major surface of the polyester film, wherein the layer packets are arranged in a stack such that the second major surface of the release layer of an overlying layer packet is attached to the first major surface of the polyester film of an underlying layer packet; wherein the average thickness of the polyester film is about 127 microns (5 mils) or less and the polyester film exhibits shrinkage at 150°C of less than 1 % in any axial direction.
A sheet-fed printing press for numbering of security documents, including banknotes, comprising a numbering group comprising at least one numbering unit for numbering printed material in the form of individual sheets carrying multiple security imprints, characterized in that the printing press for numbering of security documents also is designed for varnishing the security documents and further comprises a varnishing group (03; 03*) located downstream of said numbering group for applying varnish onto recto and verso sides of said printed material, said varnishing group (03; 03*) comprising at least a first varnishing unit disposed above a path of said printed material to apply varnish on the recto side of the printed material and at least a second varnishing unit disposed below the path of said printed material to apply varnish on the verso side of the printed material.
An intervertebral device comprising: a) an intervertebral spacer (9; 411) having an anterior wall , a posterior wall , and first and second side walls connecting the anterior and posterior walls, the anterior wall having an anterior surface , a posterior surface , an upper surface and a lower surface , a first throughhole extending upwards from the anterior surface through the posterior surface of the anterior wall and a second throughhole extending downwards from the anterior surface through the posterior surface of the anterior wall, b) a first screw received in the first throughhole, the first screw having a distal tip , an intermediate shaft having a threadform thereon, and a proximal head , wherein the shaft of the first screw includes an angled portion . a) an intervertebral spacer (9; 411) having an anterior wall , a posterior wall , and first and second side walls connecting the anterior and posterior walls, the anterior wall having an anterior surface , a posterior surface , an upper surface and a lower surface , a first throughhole extending upwards from the anterior surface through the posterior surface of the anterior wall and a second throughhole extending downwards from the anterior surface through the posterior surface of the anterior wall, b) a first screw received in the first throughhole, the first screw having a distal tip , an intermediate shaft having a threadform thereon, and a proximal head , wherein the shaft of the first screw includes an angled portion .
A wall anchor comprising an external plate and an inside plate partially overlapping the external plate, each of the external plate and an inside plate having a wall-facing side , the plates being rigidly connected to one another adjacent a first end of their respective wall-facing sides by a cylindrical connecting member ; at least a portion of the cylindrical connecting member is configured with a round perimeter .
A photovoltaic cell comprising: a photoactive surface , a continuous busbar in contact with the photoactive surface, a busbar tape in electrical contact with the continuous busbar, a stringing ribbon soldered to the busbar tape, the busbar tape comprising a conductive metal foil and a nonconductive thermoset adhesive , wherein the continuous busbar has a width from 50 microns to 90 microns, wherein at least a portion of the busbar tape is adhered to the photoactive surface and the continuous busbar via the nonconductive thermoset adhesive, and wherein the busbar tape is solderable. a photoactive surface , a continuous busbar in contact with the photoactive surface, a busbar tape in electrical contact with the continuous busbar, a stringing ribbon soldered to the busbar tape, the busbar tape comprising a conductive metal foil and a nonconductive thermoset adhesive , wherein the continuous busbar has a width from 50 microns to 90 microns, wherein at least a portion of the busbar tape is adhered to the photoactive surface and the continuous busbar via the nonconductive thermoset adhesive, and wherein the busbar tape is solderable.
A method for controlling total average transmission power of a radio base station , the method being performed by a control device , the method comprising: performing (S102), for a current discrete time value t, control of total average transmission power 〈 P tot 〉( t ) of the radio base station according to a back-off power control loop, wherein the total average transmission power 〈 P tot 〉( t ) is computed over an averaging time window T of the present value of momentary transmission power and the N - 1 values of momentary transmission power preceding the present value of momentary transmission power; evaluating (S104), for a future discrete time value less than, or equal to, t + T, the total average transmission power, setting that values of momentary transmission power for all discrete time values from t up to t + T, starting at the future discrete time value t + 1, is limited to a minimum value of said momentary transmission power; and limiting (S106) the momentary transmission power to the minimum value for at least the next future discrete time value when the evaluated total average transmission power, for any of the future discrete time values, exceeds a power threshold value based on a regulatory limit. performing (S102), for a current discrete time value t, control of total average transmission power 〈 P tot 〉( t ) of the radio base station according to a back-off power control loop, wherein the total average transmission power 〈 P tot 〉( t ) is computed over an averaging time window T of the present value of momentary transmission power and the N - 1 values of momentary transmission power preceding the present value of momentary transmission power; evaluating (S104), for a future discrete time value less than, or equal to, t + T, the total average transmission power, setting that values of momentary transmission power for all discrete time values from t up to t + T, starting at the future discrete time value t + 1, is limited to a minimum value of said momentary transmission power; and limiting (S106) the momentary transmission power to the minimum value for at least the next future discrete time value when the evaluated total average transmission power, for any of the future discrete time values, exceeds a power threshold value based on a regulatory limit.
A warehouse rack system comprising: a floor-mounted rack assembly comprising a plurality of vertical legs supporting a plurality of shelves ; and an auxiliary rack support system comprising a plurality of leg support cables , each leg support cable having a first end attached to a load bearing structure above the rack assembly and a second end attached to one of the plurality of vertical legs ; characterized in that the plurality of leg support cables is configured to bear the weight of the rack assembly only in the event of structural failure of one or more of the vertical legs , wherein the second end of each leg support cable is attached such that the leg support cable is slack in normal use. a floor-mounted rack assembly comprising a plurality of vertical legs supporting a plurality of shelves ; and an auxiliary rack support system comprising a plurality of leg support cables , each leg support cable having a first end attached to a load bearing structure above the rack assembly and a second end attached to one of the plurality of vertical legs ; characterized in that the plurality of leg support cables is configured to bear the weight of the rack assembly only in the event of structural failure of one or more of the vertical legs , wherein the second end of each leg support cable is attached such that the leg support cable is slack in normal use.
An imaging system , comprising: a radiation source configured to emit radiation that traverses in a direction of an examination region during at least one acquisition interval of a scan; a detector array located opposite the radiation source, across the examination region, which is configured to detect radiation traversing the examination region during the at least one acquisition interval of the scan and to produce a signal indicative thereof; a beamshaper , located between the radiation source and the examination region, that is configured to define a flux intensity profile of the radiation beam traversing the examination region, wherein the beamshaper includes a plurality of x-ray attenuating elements , which are configured to attenuate x-rays incident thereon, interleaved with a plurality of material free regions, which are configured to pass x-ray unattenuated, and wherein the imaging system is configured so that a transmittance of the x-rays is greater nearer a center region of the beamshaper relative to ends regions of the beamshaper; and a beamshaper mover that is configured to translate the beamshaper during the at least one acquisition interval of the scan, wherein the imaging system is characterized in that the beamshaper mover is configured to translate the beamshaper a distance approximately equal to a width of an attenuating element during the at least one acquisition interval, and wherein the beamshaper mover is configured to translate the beamshaper in more than one direction. a radiation source configured to emit radiation that traverses in a direction of an examination region during at least one acquisition interval of a scan; a detector array located opposite the radiation source, across the examination region, which is configured to detect radiation traversing the examination region during the at least one acquisition interval of the scan and to produce a signal indicative thereof; a beamshaper , located between the radiation source and the examination region, that is configured to define a flux intensity profile of the radiation beam traversing the examination region, wherein the beamshaper includes a plurality of x-ray attenuating elements , which are configured to attenuate x-rays incident thereon, interleaved with a plurality of material free regions, which are configured to pass x-ray unattenuated, and wherein the imaging system is configured so that a transmittance of the x-rays is greater nearer a center region of the beamshaper relative to ends regions of the beamshaper; and
A display system of an aircraft , comprising: - a display unit ; - an assembly for generating a display on the display unit , able to dynamically display, on the display unit , at least one horizon line , a slope scale of the slope of the aircraft relative to the horizon line , and a speed vector symbol , representative of the slope of the aircraft relative to the horizon line ; the display-generating assembly being able to display, upon approaching a landing strip , a flare guidance symbol such that the position of the flare guidance symbol on the display unit depends on the topographical slope of the approached landing strip , wherein the display-generating assembly includes an application for calculating the beginning of flare maneuver position, as a function of a topographical slope, the system being characterized in that the topographical slope is determined from at least one piece of topographical information from a database characteristic of the landing strip , and in that , after the flare maneuver position has been reached, the display-generating assembly is able to bring the flare guidance symbol closer to the horizon line , according to a control law representative of a vertical speed increase profile during the flare, the control law taking into account the topographical slope of the landing strip . - a display unit ; - an assembly for generating a display on the display unit , able to dynamically display, on the display unit , at least one horizon line , a slope scale of the slope of the aircraft relative to the horizon line , and a speed vector symbol , representative of the slope of the aircraft relative to the horizon line ; the display-generating assembly being able to display, upon approaching a landing strip , a flare guidance symbol such that the position of the flare guidance symbol on the display unit depends on the topographical slope of the approached landing strip , wherein the display-generating assembly includes an application for calculating the beginning of flare maneuver position, as a function of a topographical slope, the system being characterized in that the topographical slope is determined from at least one piece of topographical information from a database characteristic of the landing strip , and in that , after the flare maneuver position has been reached, the display-generating assembly is able to bring the flare guidance symbol closer to the horizon line , according to a control law representative of a vertical speed increase profile during the flare, the control law taking into account the topographical slope of the landing strip .
A panoramic camera with a 360° overall field of view and configured to capture a 360° image of a scene that extends around the panoramic camera apart from a blind spot that is below the panoramic camera, the 360° image of the scene being configured to allow a user to look around, above, below, back and forward, the panoramic camera having exactly four imaging means, each arranged to capture a different field of view, each field of view being associated with a separate sensor or detector, so that the panoramic camera is operable to capture four separate images, wherein each imaging means comprising a lens tilted at the same angle as its associated sensor or detector and each lens being positioned on a different external side of the housing; the four imaging means are equally positioned around a central axis, so that every imaging means of the panoramic camera contributes at least a quarter of the 360° image of the scene being imaged; and every imaging means of the panoramic camera is tilted to capture light from a zenith above the camera and each imaging means is tilted at the same angle. each imaging means comprising a lens tilted at the same angle as its associated sensor or detector and each lens being positioned on a different external side of the housing; the four imaging means are equally positioned around a central axis, so that every imaging means of the panoramic camera contributes at least a quarter of the 360° image of the scene being imaged; and every imaging means of the panoramic camera is tilted to capture light from a zenith above the camera and each imaging means is tilted at the same angle.