mhurhangee/patent-ind-claim-en huggingface dataset:
A method, comprising: receiving at a processor a first current data and at least one first past data from a database or local feedback information relating to a first pressure at a first portion of a pipeline, wherein a first valve is coupled to the first portion; receiving at the processor a second current data and at least one second past data from a database or local feedback information relating to a second pressure at a second portion of the pipeline, wherein a second valve is coupled to the second portion; receiving at the processor a third current data and at least one third past data from a database or local feedback information relating to a first status of a first pump coupled to the pipeline; receiving at the processor a fourth current data and at least one fourth past data from a database or local feedback information relating to a second status of a second pump coupled to the pipeline; automatically adjusting, via the processor, at least two of the first pump, the second pump, the first valve or the second valve, simultaneously, based on the first current data, the at least one first past data, the second current data, the at least one second past data, the third current data, the at least one third past data, the fourth current data, and the at least one fourth past data, to at least one of maintain or stabilize a flow rate of the pipeline in real time and at a future point in time. receiving at a processor a first current data and at least one first past data from a database or local feedback information relating to a first pressure at a first portion of a pipeline, wherein a first valve is coupled to the first portion; receiving at the processor a second current data and at least one second past data from a database or local feedback information relating to a second pressure at a second portion of the pipeline, wherein a second valve is coupled to the second portion; receiving at the processor a third current data and at least one third past data from a database or local feedback information relating to a first status of a first pump coupled to the pipeline; receiving at the processor a fourth current data and at least one fourth past data from a database or local feedback information relating to a second status of a second pump coupled to the pipeline; automatically adjusting, via the processor, at least two of the first pump, the second pump, the first valve or the second valve, simultaneously, based on the first current data, the at least one first past data, the second current data, the at least one second past data, the third current data, the at least one third past data, the fourth current data, and the at least one fourth past data, to at least one of maintain or stabilize a flow rate of the pipeline in real time and at a future point in time.
An aspiration catheter system for use in connection with navigation within a vascular lumen and thrombectomy of a thrombus, the aspiration catheter system comprising: a tubular catheter member having an open distal end and an inner diameter defining a catheter lumen; a vacuum source operably coupled to the tubular catheter member to impart a vacuum within the catheter lumen to aspirate the thrombus; a rotational drive system ; a flexible shaft having a channel operably coupled to the rotational drive system configured for rotational movement in response thereto, the flexible shaft at least partially disposed within the tubular catheter member configured for uncoupled rotational and orbital motion therein, the flexible shaft configured to define a corkscrew shape in response to rotational driving force by the drive system that results in formation of hydrodynamic vortices within the catheter lumen; and a guidewire member selectively inserted at least partially within the flexible shaft , the guidewire member and the flexible shaft being collectively sufficient to navigate the vascular lumen and steer translational movement of the tubular catheter member there along, the guidewire member being configured to be removable from the flexible shaft . a tubular catheter member having an open distal end and an inner diameter defining a catheter lumen; a vacuum source operably coupled to the tubular catheter member to impart a vacuum within the catheter lumen to aspirate the thrombus; a rotational drive system ; a flexible shaft having a channel operably coupled to the rotational drive system configured for rotational movement in response thereto, the flexible shaft at least partially disposed within the tubular catheter member configured for uncoupled rotational and orbital motion therein, the flexible shaft configured to define a corkscrew shape in response to rotational driving force by the drive system that results in formation of hydrodynamic vortices within the catheter lumen; and a guidewire member selectively inserted at least partially within the flexible shaft , the guidewire member and the flexible shaft being collectively sufficient to navigate the vascular lumen and steer translational movement of the tubular catheter member there along, the guidewire member being configured to be removable from the flexible shaft .
A catheter assembly for capturing emboli (E) dislodged from an arterial lesion, the assembly comprising: a catheter body including a lumen , the catheter body sized for endoluminal advancement of a distal end portion of the catheter assembly from a puncture site at a human artery (A) selected from a dorsalis pedis artery, a fibular artery, an anterior tibial artery, and a posterior tibial artery toward one or more larger arteries and toward a distal end of the arterial lesion; an insertion profile and a deployment profile; and an embolic protection device configured with: a collapsed state when stowed in the lumen at the distal end portion of the catheter assembly in the insertion profile; and a deployed state when outside the lumen in the deployment profile, the deployed state configured with a retrograde opening away from the catheter body and toward a distal end or distal cap of an arterial lesion for capturing emboli (E) dislodged from the arterial lesion; and wherein the catheter body further includes one or more additional lumens , each lumen of the one or more additional lumens independently configured for flushing an arterial lumen around a distal end of an arterial lesion, aspirating emboli dislodged from an arterial lesion, or both flushing and aspirating in accordance with the foregoing. a catheter body including a lumen , the catheter body sized for endoluminal advancement of a distal end portion of the catheter assembly from a puncture site at a human artery (A) selected from a dorsalis pedis artery, a fibular artery, an anterior tibial artery, and a posterior tibial artery toward one or more larger arteries and toward a distal end of the arterial lesion; an insertion profile and a deployment profile; and an embolic protection device configured with: a collapsed state when stowed in the lumen at the distal end portion of the catheter assembly in the insertion profile; and a deployed state when outside the lumen in the deployment profile, the deployed state configured with a retrograde opening away from the catheter body and toward a distal end or distal cap of an arterial lesion for capturing emboli (E) dislodged from the arterial lesion; and a collapsed state when stowed in the lumen at the distal end portion of the catheter assembly in the insertion profile; and a deployed state when outside the lumen in the deployment profile, the deployed state configured with a retrograde opening away from the catheter body and toward a distal end or distal cap of an arterial lesion for capturing emboli (E) dislodged from the arterial lesion; and wherein the catheter body further includes one or more additional lumens , each lumen of the one or more additional lumens independently configured for flushing an arterial lumen around a distal end of an arterial lesion, aspirating emboli dislodged from an arterial lesion, or both flushing and aspirating in accordance with the foregoing.
A wireless repeater system , comprising: a first wireless repeater ; and a second wireless repeater that is communicatively coupled to the first wireless repeater via a transmission line between the first wireless repeater and the second wireless repeater, wherein the first wireless repeater includes a controller operable to identify an analog signal received from the second wireless repeater via the transmission line; said system being characterized in that said controller is further operable to determine that a signal strength of the analog signal received from the second wireless repeater is below a defined threshold, wherein the defined threshold is based on a known gain between the first wireless repeater and the second wireless repeater; and determine that a change in loss across the transmission line between the first wireless repeater and the second wireless repeater has occurred when the signal strength of the analog signal is below the defined threshold. a first wireless repeater ; and a second wireless repeater that is communicatively coupled to the first wireless repeater via a transmission line between the first wireless repeater and the second wireless repeater, wherein the first wireless repeater includes a controller operable to identify an analog signal received from the second wireless repeater via the transmission line; said system being characterized in that said controller is further operable to determine that a signal strength of the analog signal received from the second wireless repeater is below a defined threshold, wherein the defined threshold is based on a known gain between the first wireless repeater and the second wireless repeater; and determine that a change in loss across the transmission line between the first wireless repeater and the second wireless repeater has occurred when the signal strength of the analog signal is below the defined threshold.
A chair , comprising: a base frame , a seat support , and a backrest support , wherein the seat support is connected to the backrest support , and wherein the backrest support is rotatably connected to a rear part of the base frame , whereby a pivot axis is defined about which the backrest support is pivotable, and further comprising linkage means in form of a four-joint coupling mechanism , for movably attaching the seat support to a front part of the base frame such that the seat support is moved on a defined movement path in a chair longitudinal direction during a pivoting movement of the backrest support , characterized in that the four-joint coupling mechanism comprises: a front motion link and a rear motion link rotatably mounted on the front part of the base frame to define positionally fixed front and rear bearing points , whereas free ends of the motion links are rotatably connected to a movable coupling element about respective front and rear articulation points , which coupling element has an arm which extends forward as viewed in the chair longitudinal direction and which is rotatably connected to the seat support , whereby an axis of rotation of the seat support , which axis of rotation is movable in the chair longitudinal direction along the movement path , is defined, wherein the motion links perform a forward pivoting movement about their respective bearing points during a rearward pivoting movement of the backrest support .
Postal sorting equipment for sorting flat mailpieces (P), which equipment comprises a postal sorting machine having a feed inlet in which the mailpieces are placed on-edge in stacks, and a sorting conveyor in which the mailpieces are moved on-edge in series towards sorting outlets ; said postal sorting equipment being characterized in that it further comprises: • a storage-tray conveyor for automatically conveying open-topped storage trays that are filled with mailpieces stacked flat; • a shuttle-tray conveyor for conveying open-fronted shuttle trays that are substantially L-shaped, and in which the mailpieces are placed on-edge in stacks; and • a tray interchanger through which the storage-tray conveyor and the shuttle-tray conveyor pass and that is suitable for automatically transferring the mailpieces stored flat in an open-topped storage tray to an open-fronted shuttle tray; and in that said shuttle-tray conveyor is connected between the interchanger and the feed inlet of the sorting machine, in that , in the interchanger, the shuttle tray to be loaded is placed under the storage tray to be unloaded, and the transfer is achieved by turning the storage tray over relative to the shuttle tray, and in that said interchanger is arranged to cause the shuttle tray being transferred to be held on a slant relative to the horizontal and vertical directions in order to obtain jogging by gravity of the transferred stack of mailpieces against the far inside surface of said shuttle tray. • a storage-tray conveyor for automatically conveying open-topped storage trays that are filled with mailpieces stacked flat; • a shuttle-tray conveyor for conveying open-fronted shuttle trays that are substantially L-shaped, and in which the mailpieces are placed on-edge in stacks; and • a tray interchanger through which the storage-tray conveyor and the shuttle-tray conveyor pass and that is suitable for automatically transferring the mailpieces stored flat in an open-topped storage tray to an open-fronted shuttle tray;
A shaft furnace for firing, in particular, carbonate-containing material, comprising, in the flow direction of the material, a preheating zone , at least one firing zone , a cooling zone , and a material outlet for discharging the material from the shaft furnace , a plurality of burner lances (32, 34; 54) which project into the firing zone , where at least one burner lance has a first penetration depth into the firing zone and at least one further burner lance has a second penetration depth into the firing zone which is greater than the first penetration depth, at least one primary air conduit for conveying combustion air, which is connected to at least one burner lance (32, 34; 54), characterized in that the shaft furnace comprises an oxygen conduit for conveying oxygen into the firing zone and the oxygen conduit is arranged in such a way that oxygen flows from the oxygen conduit to at least one burner lance having the second penetration depth, where the primary air conduit comprises a first primary air conduit for conveying combustion air which is connected to the burner lance having the first penetration depth and a second primary air conduit for conveying combustion air which is connected to the burner lance having the second penetration depth and the oxygen conduit is connected exclusively to the second primary air conduit so that oxygen flows from the oxygen conduit into the second primary air conduit . a plurality of burner lances (32, 34; 54) which project into the firing zone , where at least one burner lance has a first penetration depth into the firing zone and at least one further burner lance has a second penetration depth into the firing zone which is greater than the first penetration depth, at least one primary air conduit for conveying combustion air, which is connected to at least one burner lance (32, 34; 54), characterized in that the shaft furnace comprises an oxygen conduit for conveying oxygen into the firing zone and the oxygen conduit is arranged in such a way that oxygen flows from the oxygen conduit to at least one burner lance having the second penetration depth, where the primary air conduit comprises a first primary air conduit for conveying combustion air which is connected to the burner lance having the first penetration depth and a second primary air conduit for conveying combustion air which is connected to the burner lance having the second penetration depth and the oxygen conduit is connected exclusively to the second primary air conduit so that oxygen flows from the oxygen conduit into the second primary air conduit .
Shearing apparatus to selectively shear at least a support element , preferably a continuous strip, even more preferably provided with cells , mobile in a direction of feed (D), said shearing apparatus comprising at least a first shearing device that is provided with a shearing member and selectively drivable between an idle position, in which said shearing member does not interfere with said support element , and an operating shearing position, in which said shearing member at least partly interferes with said support element , by driving a drive member , characterized in that said first shearing device is mounted on a slider mobile along a travel (C) in a direction perpendicular to said direction of feed (D), by means of said drive member , between a position distanced from said support element , which corresponds to said idle position of said shearing member , and a position of interference with said support element , which corresponds to said operating shearing position of said shearing member , wherein said first shearing device also comprises an actuation device configured to actuate said shearing member and selectively take it into a first operating condition, in which said shearing member totally interferes with said support element , shearing it completely and thus achieving at least a unitary section of the latter which detaches from a lateral off-cut thereof, or into a second operating condition, in which said shearing member only partly interferes with said support element , so the corresponding unitary section , not completed, remains attached to the lateral off-cut of the latter, wherein in said two operating conditions of the shearing member , said shearing member assumes two different positions with respect to said slider , while said travel (C) performed by said slider is the same, so that said two operating conditions are obtained with the same travel of the drive member .
Space optical instrument comprising a primary mirror having an optical axis (O) and comprising a first face , referred to as the front face, oriented towards an observed area, and a second face opposite to the first, referred to as the rear face, the optical instrument further comprising a thermal stabilization device for the primary mirror, comprising a thermally conductive wall extending around the optical axis (O) on the front face side of the primary mirror towards which this face is oriented, characterized in that the thermal stabilization device further comprises a temperature regulating device for the thermally conductive wall , capable of using the measurement of an incident heat flux on the mirror and varying the temperature of said wall according to the measured incident heat flux, in order to keep the front face of the mirror at a constant temperature, the temperature regulating device comprising a set of heating devices for the thermally conductive wall , a heat flux sensor on the front face of the mirror, and a controller capable of controlling the heating devices according to the heat flux measured by the sensor .
A device for generating a data packet , the device configured to: obtain payload data associated with a data source; compute a message authentication code based on a unique key of the data source and the payload data, wherein the unique key of the data source is unique within a plurality of data sources; obtain an auxiliary identifier for the data source, wherein a size of the auxiliary identifier is smaller than a size of an identifier of the data source, wherein the auxiliary identifier is ambiguous within the plurality of data sources and the identifier of the data source is unambiguous within the plurality of data sources; determine a checksum based on the payload data, the message authentication code, and the auxiliary identifier, wherein determining the checksum based on the payload data, the message authentication code, and the auxiliary identifier comprises performing an exclusive-or operation for the checksum with the auxiliary identifier; and generate the data packet , wherein the data packet comprises the payload data, the message authentication code, and the checksum and wherein the data packet does not include an explicit identifier of the data source. obtain payload data associated with a data source; compute a message authentication code based on a unique key of the data source and the payload data, wherein the unique key of the data source is unique within a plurality of data sources; obtain an auxiliary identifier for the data source, wherein a size of the auxiliary identifier is smaller than a size of an identifier of the data source, wherein the auxiliary identifier is ambiguous within the plurality of data sources and the identifier of the data source is unambiguous within the plurality of data sources; determine a checksum based on the payload data, the message authentication code, and the auxiliary identifier, wherein determining the checksum based on the payload data, the message authentication code, and the auxiliary identifier comprises performing an exclusive-or operation for the checksum with the auxiliary identifier; and generate the data packet , wherein the data packet comprises the payload data, the message authentication code, and the checksum and wherein the data packet does not include an explicit identifier of the data source.
A high-strength steel sheet, comprising a component composition containing, on a percent by mass basis: C: 0.12% to 0.30%, Si: 0.5% to 3.0%, Mn: 2.0% to 4.0%, P: 0.100% or less, S: 0.02% or less, Al: 0.01% to 1.50%, and at least one selected from V: 0.1% to 1.5%, Mo: 0.1% to 1.5%, Ti: 0.005% to 0.10%, and Nb: 0.005% to 0.10%, optionally at least one element selected from Cr: 0.005% to 2.0%, Ni: 0.005% to 2.0%, Cu: 0.005% to 2.0%, B: 0.0003% to 0.0050%, Ca: 0.001% to 0.005%, REM: 0.001% to 0.005%, Sn: 0.005% to 0.50%, and Sb: 0.005% to 0.50%, the balance being Fe and incidental impurities; and a steel microstructure containing, on an area percent basis, 1% to 35% ferrite having an aspect ratio of 2.0 or more, 10% or less ferrite having an aspect ratio of less than 2.0, less than 5% non-recrystallized ferrite, 40% to 80% in total of bainite and martensite containing carbide, 5% to 35% in total of fresh martensite and retained austenite, and 3% to 35% retained austenite, the retained austenite having a C content of 0.40% to 0.70% by mass, measured with the methods as of the description. C: 0.12% to 0.30%, Si: 0.5% to 3.0%, Mn: 2.0% to 4.0%, P: 0.100% or less, S: 0.02% or less, Al: 0.01% to 1.50%, and at least one selected from V: 0.1% to 1.5%, Mo: 0.1% to 1.5%, Ti: 0.005% to 0.10%, and Nb: 0.005% to 0.10%, optionally at least one element selected from Cr: 0.005% to 2.0%, Ni: 0.005% to 2.0%, Cu: 0.005% to 2.0%, B: 0.0003% to 0.0050%, Ca: 0.001% to 0.005%, REM: 0.001% to 0.005%, Sn: 0.005% to 0.50%, and Sb: 0.005% to 0.50%, the balance being Fe and incidental impurities; and a steel microstructure containing, on an area percent basis, 1% to 35% ferrite having an aspect ratio of 2.0 or more, 10% or less ferrite having an aspect ratio of less than 2.0, less than 5% non-recrystallized ferrite, 40% to 80% in total of bainite and martensite containing carbide, 5% to 35% in total of fresh martensite and retained austenite, and 3% to 35% retained austenite, the retained austenite having a C content of 0.40% to 0.70% by mass, measured with the methods as of the description.