mhurhangee/patent-ind-claim-en huggingface dataset:
A process for preparing a nanosponge, comprising the steps of: a) extruding in a single- or a multi-screw extruder at least one dextrin and at least one crosslinker selected from the group consisting of: a dianhydride, a dicarboxylic acid or a derivative thereof, 1,1-carbonyldiimidazole, a carbonate ester, a diisocyanate, a diepoxide, and sodium trimetaphosphate; and b) obtaining the nanosponge from step a). a) extruding in a single- or a multi-screw extruder at least one dextrin and at least one crosslinker selected from the group consisting of: a dianhydride, a dicarboxylic acid or a derivative thereof, 1,1-carbonyldiimidazole, a carbonate ester, a diisocyanate, a diepoxide, and sodium trimetaphosphate; and b) obtaining the nanosponge from step a).
A system for detecting a guide catheter disposed in a lumen of a blood vessel the system comprising: one or more processors, the one or more processors configured to: collect a set of scan lines using a probe disposed in the blood vessel and positioned using the guide catheter (A1); determine a maximum intensity value for each scan line in a set of frames; average maximum intensity values of scan lines for each frame of the set of frames; and identify one or more frames from the set of frames as containing the guide catheter based upon the average maximum intensity value of the one or more frames being greater than the average maximum intensity value of other frames in the set of frames. collect a set of scan lines using a probe disposed in the blood vessel and positioned using the guide catheter (A1); determine a maximum intensity value for each scan line in a set of frames; average maximum intensity values of scan lines for each frame of the set of frames; and identify one or more frames from the set of frames as containing the guide catheter based upon the average maximum intensity value of the one or more frames being greater than the average maximum intensity value of other frames in the set of frames.
An apparatus for producing an ultrasound contrast image of micro vasculature in an image region, comprising: a contrast temporal processor responsive to harmonic echo signals received from a contrast agent and configured to process the harmonic echo signals to produce a contrast data value for each of a plurality of spatial locations in the imaging region for a first time point and a second time point over a time period, the second time point being different from the first time point, the contrast data value for a spatial location in the image region for the first time point and the second time point being produced in different ways over the time period, the time period including at least a wash-in stage of the contrast agent; and a scan converter coupled to receive the produced contrast data values and configured to produce a contrast image for the first time point and the second time point by arranging the produced contrast data values for the plurality of spatial locations for the first time point and the second time point in a desired image format; characterised in that the contrast temporal processor comprises a maximum intensity (MI) detector and a time averaged (TA) calculator configured to process the harmonic echo signals to produce the differently processed contrast data values. a contrast temporal processor responsive to harmonic echo signals received from a contrast agent and configured to process the harmonic echo signals to produce a contrast data value for each of a plurality of spatial locations in the imaging region for a first time point and a second time point over a time period, the second time point being different from the first time point, the contrast data value for a spatial location in the image region for the first time point and the second time point being produced in different ways over the time period, the time period including at least a wash-in stage of the contrast agent; and a scan converter coupled to receive the produced contrast data values and configured to produce a contrast image for the first time point and the second time point by arranging the produced contrast data values for the plurality of spatial locations for the first time point and the second time point in a desired image format; characterised in that the contrast temporal processor comprises a maximum intensity (MI) detector and a time averaged (TA) calculator configured to process the harmonic echo signals to produce the differently processed contrast data values.
A method of refueling of a tank of a vehicle with a hydrogen gas from a hydrogen refueling station , wherein the refueling includes: - connecting a hydrogen source with the vehicle tank by means of a hose , the flow of hydrogen gas in the hose being controlled by a controller controlling a valve , - initiating the refueling by determining the pressure of the vehicle tank , - opening the valve and monitoring the temperature (VT) and pressure (VP) of the hydrogen gas in the vehicle tank , - based on the monitored temperature (VT) and the monitored pressure (VP) establishing an estimated state of charge (SOC) during the refueling, - a state of charge (SOC) of 100% related to the vehicle tank being referred to as a tank rated density (TRD), - terminating the refueling of the vehicle tank by closing of the valve when the estimated state of charge (SOC) reaches an upper state of charge (USOC), the upper state of charge (USOC) being above the tank rated density (TRD), the upper state of charge (USOC) being determined on the basis of a pre-estimated correction of state of charge (CSOC), the pre-estimated correction of state of charge (CSOC) designating a decrease of the estimated state of charge in the vehicle tank after the closing of the valve , - disconnecting the hose between the vehicle tank and the hydrogen source . - connecting a hydrogen source with the vehicle tank by means of a hose , the flow of hydrogen gas in the hose being controlled by a controller controlling a valve , - initiating the refueling by determining the pressure of the vehicle tank , - opening the valve and monitoring the temperature (VT) and pressure (VP) of the hydrogen gas in the vehicle tank , - based on the monitored temperature (VT) and the monitored pressure (VP) establishing an estimated state of charge (SOC) during the refueling, - a state of charge (SOC) of 100% related to the vehicle tank being referred to as a tank rated density (TRD), - terminating the refueling of the vehicle tank by closing of the valve when the estimated state of charge (SOC) reaches an upper state of charge (USOC), the upper state of charge (USOC) being above the tank rated density (TRD), the upper state of charge (USOC) being determined on the basis of a pre-estimated correction of state of charge (CSOC), the pre-estimated correction of state of charge (CSOC) designating a decrease of the estimated state of charge in the vehicle tank after the closing of the valve , - disconnecting the hose between the vehicle tank and the hydrogen source .
An acoustic priming therapy device comprising: a control system that generates a frequency waveform; and two or more transducers coupled to the control system and configured to generate ultrasound beams such that the frequency waveform of the one or more ultrasound beams has a spatial peak temporal average acoustic output intensity, "I spta " of between 10 and 1000 W/cm 2 in a treatment zone , wherein the two or more transducers are configured to transmit one or more ultrasound beams for 0.5 to 5 seconds, wherein the two or more transducers are configured to produce two or more frequencies; wherein the device is configured for use prior to, or concurrent with, administration of chemotherapy or radiotherapy, wherein the mechanical index of any ultrasound beam is less than 4; and characterised in that one of the two or more transducers produces one or more ultrasound frequencies in the range of 300 kHz to 3 MHz, and another of the two or more transducers produces one or more frequencies in a range of 10 kHz to 300 kHz; and wherein the two or more transducers comprise a planar transducer and a concave piston-type transducer, and the transducer used to produce the one or more frequencies in a range of 10kHz to 300 kHz is concave and the transducer used to produce the one or more ultrasound frequencies in the range of 300 kHz to 3MHz is planar. a control system that generates a frequency waveform; and two or more transducers coupled to the control system and configured to generate ultrasound beams such that the frequency waveform of the one or more ultrasound beams has a spatial peak temporal average acoustic output intensity, "I spta " of between 10 and 1000 W/cm 2 in a treatment zone , wherein the two or more transducers are configured to transmit one or more ultrasound beams for 0.5 to 5 seconds, wherein the two or more transducers are configured to produce two or more frequencies; wherein the device is configured for use prior to, or concurrent with, administration of chemotherapy or radiotherapy, wherein the mechanical index of any ultrasound beam is less than 4; and characterised in that one of the two or more transducers produces one or more ultrasound frequencies in the range of 300 kHz to 3 MHz, and another of the two or more transducers produces one or more frequencies in a range of 10 kHz to 300 kHz; and wherein the two or more transducers comprise a planar transducer and a concave piston-type transducer, and the transducer used to produce the one or more frequencies in a range of 10kHz to 300 kHz is concave and the transducer used to produce the one or more ultrasound frequencies in the range of 300 kHz to 3MHz is planar.
An information processing method performed using a computer, the information processing method comprising: obtaining, for each of a plurality of vehicles that are monitoring targets, first position information indicating a first position of the vehicle; obtaining, for each of the plurality of vehicles, second position information indicating a second position in which the vehicle is requested to be monitored; determining, for each of the plurality of vehicles, a monitoring priority level of the vehicle according to movement information relating to movement of the vehicle from the first position to the second position; generating presentation information for monitoring only one or more of the plurality of vehicles, each of the one or more of the plurality of vehicles being identified based on the monitoring priority level of the vehicle; and causing a presentation device to output the presentation information. obtaining, for each of a plurality of vehicles that are monitoring targets, first position information indicating a first position of the vehicle; obtaining, for each of the plurality of vehicles, second position information indicating a second position in which the vehicle is requested to be monitored; determining, for each of the plurality of vehicles, a monitoring priority level of the vehicle according to movement information relating to movement of the vehicle from the first position to the second position; generating presentation information for monitoring only one or more of the plurality of vehicles, each of the one or more of the plurality of vehicles being identified based on the monitoring priority level of the vehicle; and causing a presentation device to output the presentation information.
A heat transfer liquid medium comprising a mixture of water and a reaction product of a monoalkanolamine wherein the alkyl group has from 2 to 4 carbon atoms and an inorganic acid selected from the group consisting of phosphoric acid and sulfamic acid, wherein the weight proportion of water in said mixture is from 10% to 95%, and wherein the weight proportion of the reaction product in said mixture is from 5% to 90%.
Method for separating profile sections in extrusion lines, in which, during the ongoing extrusion process, a carriage is coupled in an upstream position to the calibrated profile strand in order to move along with the profile strand , wherein, in the coupled state, a blade arranged in a clamping frame is moved from an initial state transversely to the extrusion direction into an end state in order to sever a profile section from the profile strand , after which the blade is moved back to the initial state , whereupon the carriage is uncoupled from the profile strand and the carriage is moved back to the upstream state, characterised in that the movement of the blade from the initial state to the final state is carried out controlled via a control device at speeds (v 1 to v 9 ) which differ from region to region, and in that the movement of the blade is slower in movement sections (b 1 to b 7 ) in which fragile regions of the profile strand are severed than in movement sections (b 1 to b 7 ) in which this is not the case.
A method for sending data, comprising: receiving , by a second network equipment, user data sent by a first network equipment through a first interface, wherein a connection between the first network equipment and the second network equipment is backhaul, and the connection is used for user data transmission on the first interface; receiving , by the second network equipment, control signaling sent by the first network equipment through a second interface, wherein the second interface is an air interface; and sending , by the second network equipment, the user data to a user equipment, UE, according to the control signaling, wherein the control signaling is also received by the UE through the second interface, and the control signaling is used for scheduling a resource for carrying the user data . receiving , by a second network equipment, user data sent by a first network equipment through a first interface, wherein a connection between the first network equipment and the second network equipment is backhaul, and the connection is used for user data transmission on the first interface; receiving , by the second network equipment, control signaling sent by the first network equipment through a second interface, wherein the second interface is an air interface; and sending , by the second network equipment, the user data to a user equipment, UE, according to the control signaling, wherein the control signaling is also received by the UE through the second interface, and the control signaling is used for scheduling a resource for carrying the user data .
An adapter module (10, 10-A, 10-B, 10-C, 10-D), comprising an adapter unit (102, 102-A, 102-B, 102-C, 102-D) and an adapter cable (104, 104-A, 104-B, 104-C, 104-D) wherein: the adapter unit (102, 102-A, 102-B, 102-C, 102-D) conforms to a USB power delivery communication protocol and includes a control unit being a power delivery controller with said USB power delivery communication protocol, wherein the control unit comprises a data transmission terminal (122-1); the adapter cable (104, 104-A, 104-B, 104-C, 104-D) includes a data transmission line configured to couple to the data transmission terminal (122-1) of the control unit within the adapter unit (102, 102-A, 102-B, 102-C, 102-D) and the load , and a voltage control unit coupled to the data transmission line and configured to provide a reference voltage (Vref) across said voltage control unit , wherein the data transmission line is configured to transmit a communication signal (Sn) provided by the load and the reference voltage (Vref) provided by the voltage control unit to the adapter unit (102, 102-A, 102-B, 102-C, 102-D), wherein the control unit is configured to receive the reference voltage (Vref), is configured to detect whether the communication signal (Sn) is received through the data transmission terminal (122-1) and is configured to control the adapter unit (102, 102-A, 102-B, 102-C, 102-D) to provide a fixed voltage to the load according to the reference voltage (Vref) when the control unit detects the communication signal (Sn) is not received. the adapter unit (102, 102-A, 102-B, 102-C, 102-D) conforms to a USB power delivery communication protocol and includes a control unit being a power delivery controller with said USB power delivery communication protocol, wherein the control unit comprises a data transmission terminal (122-1); the adapter cable (104, 104-A, 104-B, 104-C, 104-D) includes a data transmission line configured to couple to the data transmission terminal (122-1) of the control unit within the adapter unit (102, 102-A, 102-B, 102-C, 102-D) and the load , and a voltage control unit coupled to the data transmission line and configured to provide a reference voltage (Vref) across said voltage control unit , wherein the data transmission line is configured to transmit a communication signal (Sn) provided by the load and the reference voltage (Vref) provided by the voltage control unit to the adapter unit (102, 102-A, 102-B, 102-C, 102-D), wherein the control unit is configured to receive the reference voltage (Vref), is configured to detect whether the communication signal (Sn) is received through the data transmission terminal (122-1) and is configured to control the adapter unit (102, 102-A, 102-B, 102-C, 102-D) to provide a fixed voltage to the load according to the reference voltage (Vref) when the control unit detects the communication signal (Sn) is not received.
Compact and dampened hinge device for an appliance comprising a first connection means assigned to be fixed to a hatch or shutter for the rotation of the latter between closed and fully opened conditions of the appliance and swivelling connected by means of a hinge pin to a second connection means assigned to be fixed to the structure or frame of the appliance; said device comprising at least one first elastic means interconnected between the first connection means and the second connection means to transmit to the first connection means an elastic torque directed towards the closed condition of the hinge device ; said device comprises a damper element of a linear type having a longitudinal geometric axis and a first end connected to at least one of the first connection means or second connection means either directly or by means of an element connected thereto , the other and second end of the damper element being assigned to meet with an abutment element slidable in a sliding direction aligned or parallel to the damper element axis due to the effect of a translating means slidable in said sliding direction and actuated, at least in the terminal closing phase of the door, by at least one offset element fixed to the second connection means to a respective predetermined distance from the hinge pin ; in at least one angular sector of the door rotation, the offset element meets the translating means causing it to slide together with the abutment element in the sliding direction compressing the damper element which brakes the rotation of the door in this angular sector; the second connection means carries a cam element fixed to or formed in the second connection means and it comprises a spinning element elastically pressed in the direction of sliding by a second elastic means which, at least in an angular sector of the door rotation, transmits its elastic force to the cam element by means of the spinning element ; the first elastic means transmits its elastic force to a connecting pin fixed to the second connection means at a respective predetermined distance from the hinge pin and fixed to one end of a tie-rod element to which the first elastic means is connected, this tie-rod element slides approximately in the sliding direction along or within the first connection means ; said device being characterized in that the portion of the tie-rod element opposite to the connecting pin contains or bears a housing element bound to it and the portion of the tie-rod element , bearing the connecting pin , contains or bears a support element having at one end a rotation axis of the spinning element , this axis is slidingly engaged in slots elongated in the sliding direction and formed in the tie-rod element ; the second elastic means consists of a helical spring compressed between two shoulders , one of the housing element and the other of the support element .
A computer-implemented method of generating a fluid flow model of a turbidity current to predict the structure and/or performance of a subsurface hydrocarbon reservoir to optimize hydrocarbon extraction therefrom comprising: defining a first flow layer in the turbidity current comprising sediment; characterized in successively defining at least one more flow layer in the turbidity current , each successive flow layer including the previously defined flow layer, wherein the flow layers are defined based on sediment size; defining a set of depth-averaged flow variables for each flow layer, developing a model describing the turbidity current , wherein the model uses fluid flow equations and the set of depth-averaged flow variables for each flow layer to predict fluid flow in each flow layer; outputting the model ; modeling the hydrocarbon reservoir using the model of the turbidity current; and predicting hydrocarbon production based on the model of the hydrocarbon reservoir. defining a first flow layer in the turbidity current comprising sediment; characterized in successively defining at least one more flow layer in the turbidity current , each successive flow layer including the previously defined flow layer, wherein the flow layers are defined based on sediment size; characterized in successively defining at least one more flow layer in the turbidity current , each successive flow layer including the previously defined flow layer, wherein the flow layers are defined based on sediment size; defining a set of depth-averaged flow variables for each flow layer, developing a model describing the turbidity current , wherein the model uses fluid flow equations and the set of depth-averaged flow variables for each flow layer to predict fluid flow in each flow layer; outputting the model ; modeling the hydrocarbon reservoir using the model of the turbidity current; and predicting hydrocarbon production based on the model of the hydrocarbon reservoir.