mhurhangee/ep-ind-claims huggingface dataset:
Method for classifying a risk for thrombus formation in an organ of a patient comprising: - transferring a medical image data set of the organ to an evaluation unit; - segmenting the organ into a plurality of defined volumes; - calculating by a processor of the evaluation unit 2. a flow parameter based on the medical image data set, wherein the flow parameter is a flow velocity and assigning to each defined volume a flow velocity respectively; - assigning a flow velocity to a predefined volume, and wherein the evaluation unit is configured such that the size of the predefined volume is adjustable by using an input device; - assigning by a processor of the evaluation unit a risk parameter based on the flow parameter, wherein the risk parameter is related to the flow velocity; and - providing the risk parameter. - transferring a medical image data set of the organ to an evaluation unit; - segmenting the organ into a plurality of defined volumes; - calculating by a processor of the evaluation unit 2. a flow parameter based on the medical image data set, wherein the flow parameter is a flow velocity and assigning to each defined volume a flow velocity respectively; - assigning a flow velocity to a predefined volume, and wherein the evaluation unit is configured such that the size of the predefined volume is adjustable by using an input device; - assigning by a processor of the evaluation unit a risk parameter based on the flow parameter, wherein the risk parameter is related to the flow velocity; and - providing the risk parameter.
A high-density mapping catheter comprising: a catheter shaft comprising a proximal end and a distal end, the catheter shaft defining a catheter shaft longitudinal axis extending between the proximal end and the distal end; a flexible tip portion fixed adjacent to the distal end of the catheter shaft, the flexible tip portion comprising a flexible framework formed of a plurality of longitudinally-extending electrode-carrying arms (188, 190, 192, 194) fixed adjacent to the distal end of the catheter shaft to prevent longitudinal movement between the electrode-carrying arms and the distal end of the catheter shaft, wherein each of the plurality of electrode-carrying arms (188, 190, 192, 194) has a Nitinol understructure and each of the plurality of electrode-carrying arms (188, 190, 192, 194) converges with at least one other of the plurality of electrode-carrying arms (188, 190, 192, 194) at a distal end of the flexible tip portion; and a plurality of microelectrodes mounted on the plurality of electrode-carrying arms (188, 190, 192, 194) and forming a flexible, planar array of microelectrodes adapted to conform to tissue, wherein the plurality of microelectrodes are configured for use as mapping electrodes and the flexible framework is configured to facilitate relative movement among at least some of the plurality of microelectrodes relative to other of the plurality of microelectrodes. 1. a catheter shaft comprising a proximal end and a distal end, the catheter shaft defining a catheter shaft longitudinal axis extending between the proximal end and the distal end; a flexible tip portion fixed adjacent to the distal end of the catheter shaft, the flexible tip portion comprising a flexible framework formed of a plurality of longitudinally-extending electrode-carrying arms (188, 190, 192, 194) fixed adjacent to the distal end of the catheter shaft to prevent longitudinal movement between the electrode-carrying arms and the distal end of the catheter shaft, wherein each of the plurality of electrode-carrying arms (188, 190, 192, 194) has a Nitinol understructure and each of the plurality of electrode-carrying arms (188, 190, 192, 194) converges with at least one other of the plurality of electrode-carrying arms (188, 190, 192, 194) at a distal end of the flexible tip portion; and a plurality of microelectrodes mounted on the plurality of electrode-carrying arms (188, 190, 192, 194) and forming a flexible, planar array of microelectrodes adapted to conform to tissue, wherein the plurality of microelectrodes are configured for use as mapping electrodes and the flexible framework is configured to facilitate relative movement among at least some of the plurality of microelectrodes relative to other of the plurality of microelectrodes. 1.
A delivery device configured to deliver an agent to a target tissue through a channel of an endoscope, the delivery device comprising: a body including a.) a coupling region configured to removably attach to a handle of the endoscope, the coupling region comprising means to receive the handle of the endoscope, and b.) a coupler including an exit port for aligning with a port of the channel, wherein the coupler is configured to mate with the port of the channel; a source of the agent; and a source of pressurized fluid, wherein the body, the source of the agent, and the source of pressurized fluid are arranged to deliver agent and pressurized fluid to the exit port for delivery through the channel. a body including a.) a coupling region configured to removably attach to a handle of the endoscope, the coupling region comprising means to receive the handle of the endoscope, and b.) a coupler including an exit port for aligning with a port of the channel, wherein the coupler is configured to mate with the port of the channel; a source of the agent; and a source of pressurized fluid, wherein the body, the source of the agent, and the source of pressurized fluid are arranged to deliver agent and pressurized fluid to the exit port for delivery through the channel.
A system comprising: an integrated circuit or integrated device comprising: a silicon substrate; a sensor comprising: a bulk acoustic wave resonator; and an acoustic mirror disposed between the bulk acoustic wave resonator and the substrate; a CMOS circuit supported by the substrate and operatively connected to the sensor; and a heater disposed between the acoustic mirror and the substrate; and a controller operatively connected to the integrated circuit or integrated device and configured to receive signals from the integrated circuit or integrated device and/or to provide control signals to the integrated circuit or integrated device, the controller arranged to cause heating of the heater to at least 100°C. an integrated circuit or integrated device comprising: a silicon substrate; a sensor comprising: a bulk acoustic wave resonator; and an acoustic mirror disposed between the bulk acoustic wave resonator and the substrate; a CMOS circuit supported by the substrate and operatively connected to a silicon substrate; a sensor comprising: a bulk acoustic wave resonator; and an acoustic mirror disposed between the bulk acoustic wave resonator and the substrate; a bulk acoustic wave resonator; and an acoustic mirror disposed between the bulk acoustic wave resonator and the substrate; a CMOS circuit supported by the substrate and operatively connected to the sensor; and a heater disposed between the acoustic mirror and the substrate; and a controller operatively connected to the integrated circuit or integrated device and configured to receive signals from the integrated circuit or integrated device and/or to provide control signals to the integrated circuit or integrated device, the controller arranged to cause heating of the heater to at least 100°C.
A terminal comprising: a receiving section configured to receive, on a first carrier, downlink control information about a second carrier to which uplink data is scheduled; and a control section configured to control Physical Uplink Shared Channel, PUSCH, transmission on the second carrier based on the downlink control information, wherein the control section is configured to determine a TTI of the second carrier for the PUSCH transmission, a TTI length of the first carrier for reception of the downlink control information is different from a TTI length of the second carrier for the PUSCH transmission, the control section is configured to control the PUSCH transmission on the second carrier based on the downlink control information by using the TTI of the second carrier that is a given time after a TTI where the downlink control information is received on the first carrier, and the given time is an integral multiple of a longer TTI length between the TTI length of the first carrier for reception of the downlink control information and the TTI length of the second carrier for the PUSCH transmission. a receiving section configured to receive, on a first carrier, downlink control information about a second carrier to which uplink data is scheduled; and a control section configured to control Physical Uplink Shared Channel, PUSCH, transmission on the second carrier based on the downlink control information, wherein the control section is configured to determine a TTI of the second carrier for the PUSCH transmission, a TTI length of the first carrier for reception of the downlink control information is different from a TTI length of the second carrier for the PUSCH transmission, the control section is configured to control the PUSCH transmission on the second carrier based on the downlink control information by using the TTI of the second carrier that is a given time after a TTI where the downlink control information is received on the first carrier, and the given time is an integral multiple of a longer TTI length between the TTI length of the first carrier for reception of the downlink control information and the TTI length of the second carrier for the PUSCH transmission.
A method of operating a service provider including a client interactive logic component interfacing with at least one of a plurality of client computer systems and further including a primary logic component being autonomous from the client interactive logic component, in a network having the service provider and the plurality of client computer systems, the primary logic component managing access to current data, the method comprising: maintaining reference data that is based on the current data as the current data existed at a previous instant in time, wherein the client interactive logic component receives consecutive updates of the reference data; receiving at least one message from a client computer system of the plurality of client computer systems, the at least one message including a client request for a service offered by the service provider; extracting, at the client interactive logic component, single user writable data from the at least one message received from the client computer system; formulating, at the client interactive logic component, a formal request for the service using the reference data and the single user writable data, the formal request being according to a format recognized by the primary logic component; and submitting the formal request from the client interactive logic component to the primary logic component, wherein the primary logic component is configured to accept formal requests that are based on reference data that is at least as old as an average time period between consecutive updates, wherein denial of requests due to staleness of the reference data is reduced. maintaining reference data that is based on the current data as the current data existed at a previous instant in time, wherein the client interactive logic component receives consecutive updates of the reference data; receiving at least one message from a client computer system of the plurality of client computer systems, the at least one message including a client request for a service offered by the service provider; extracting, at the client interactive logic component, single user writable data from the at least one message received from the client computer system; formulating, at the client interactive logic component, a formal request for the service using the reference data and the single user writable data, the formal request being according to a format recognized by the primary logic component; and submitting the formal request from the client interactive logic component to the primary logic component, wherein the primary logic component is configured to accept formal requests that are based on reference data that is at least as old as an average time period between consecutive updates, wherein denial of requests due to staleness of the reference data is reduced.
A transformant of Schizosaccharomyces pombe, the transformant comprising a transferrin gene and a secretion signal peptide gene located in an upstream region of the transferrin gene, wherein the secretion signal peptide gene is a structural gene encoding a secretion signal peptide, wherein, transferrin to which a secretion signal peptide which functions in the Schizosaccharomyces pombe binds, is expressed in the transformant, and wherein the transformant has gas2 gene endogenous to the Schizosaccharomyces pombe deleted or inactivated.
A method of processing seismic data to attenuate noise in the seismic data, the method comprising: transforming the seismic data into an f-x domain using a discrete Fourier transform; and at each discrete frequency, applying a 1-dimensional infinite impulse response spatial filter. transforming the seismic data into an f-x domain using a discrete Fourier transform; and at each discrete frequency, applying a 1-dimensional infinite impulse response spatial filter.
Method for certifying an electronic document, said method being implemented by a peer device in a network of peers, said peer devices being configured so as to store a copy of a blockchain using a blockchain mechanism, said method being characterized in that it comprises: - a step of authenticating a peer device that issues this document; - a step of generating, for said issuing peer device, a single-use public key/private key pair (KPUB, KPRIV); - a step of sending, to the issuing peer device, a message containing said public key (KPUB), the address of a smart contract in the blockchain and a description of the services offered by this smart contract; - a step of receiving a block of said chain and of detecting, in this block, an event representative of a write operation to said smart contract, a fingerprint (HASH) of a document issued by said issuing device and a signature of this fingerprint; - a step of verifying the validity of said signature with said private key (KPRIV); - a step of sending a transaction to the peer devices in order to ask them to execute a function of the smart contract with the effect of recording, in a block of the chain, information representative of the fact that the fingerprint of the document has been certified by said peer device. - a step of authenticating a peer device that issues this document; - a step of generating, for said issuing peer device, a single-use public key/private key pair (KPUB, KPRIV); - a step of sending, to the issuing peer device, a message containing said public key (KPUB), the address of a smart contract in the blockchain and a description of the services offered by this smart contract; - a step of receiving a block of said chain and of detecting, in this block, an event representative of a write operation to said smart contract, a fingerprint (HASH) of a document issued by said issuing device and a signature of this fingerprint; - a step of verifying the validity of said signature with said private key (KPRIV); - a step of sending a transaction to the peer devices in order to ask them to execute a function of the smart contract with the effect of recording, in a block of the chain, information representative of the fact that the fingerprint of the document has been certified by said peer device.
A coated substrate, comprising: a light transmissive substrate having one or more major surfaces; and a coating disposed on at least a portion of one major surface of the substrate, the coating comprising a plurality of discrete layers, including: a first reflective layer; a second reflective layer disposed above first reflective layer; a third reflective layer disposed above second reflective layer; a first oxide layer disposed between first and second reflective layers; a second oxide layer disposed between second and third reflective layers; a third oxide layer disposed between the substrate and the first reflective layer; and an alloy layer disposed between first and second reflective layers and contiguous to the second reflective layer, wherein the alloy layer comprises Ni, Cr, and Mo; wherein the coating has a total thickness of 2000 Å to 4000 Å. a light transmissive substrate having one or more major surfaces; and a coating disposed on at least a portion of one major surface of the substrate, the coating comprising a plurality of discrete layers, including: a first reflective layer; a second reflective layer disposed above first reflective layer; a third reflective layer disposed above second reflective layer; a first oxide layer disposed between first and second reflective layers; a second oxide layer disposed between second and third reflective layers; a third oxide layer disposed between the substrate and the first reflective layer; and an alloy layer disposed between first and second reflective layers and contiguous to the second reflective layer, wherein the alloy layer comprises Ni, Cr, and Mo; wherein the coating has a total thickness of 2000 Å to 4000 Å. a first reflective layer; a second reflective layer disposed above first reflective layer; a third reflective layer disposed above second reflective layer; a first oxide layer disposed between first and second reflective layers; a second oxide layer disposed between second and third reflective layers; a third oxide layer disposed between the substrate and the first reflective layer; and an alloy layer disposed between first and second reflective layers and contiguous to the second reflective layer, wherein the alloy layer comprises Ni, Cr, and Mo; wherein the coating has a total thickness of 2000 Å to 4000 Å.
A brake control system for a landing gear of an aircraft, comprising: a first control channel configured to provide brake control signals to one or more brakes (14a; 14b) on the landing gear, wherein the first control channel comprises a first controller that controls an operation of the one or more brakes, wherein the first control channel receives braking commands (72; 102) from a brake pedal; and a second control channel configured to provide brake control signals to another one or more brakes (16a; 16b) on the landing gear, wherein the second control channel comprises a second controller that controls an operation of the another one or more brakes, wherein the seond controlled receives braking commands (72; 102) from the brake pedal; characterised in that at least one of the first control channel and the second control channel is configured to act as an executive in monitoring braking efforts applied by the one or more brakes as compared to braking efforts applied by the another one or more brakes, and to cause the braking efforts of at least one of the one or more brakes or the another one or more brakes to be modified in an effort to equalize the braking efforts. a first control channel configured to provide brake control signals to one or more brakes (14a; 14b) on the landing gear, wherein the first control channel comprises a first controller that controls an operation of the one or more brakes, wherein the first control channel receives braking commands (72; 102) from a brake pedal; and a second control channel configured to provide brake control signals to another one or more brakes (16a; 16b) on the landing gear, wherein the second control channel comprises a second controller that controls an operation of the another one or more brakes, wherein the seond controlled receives braking commands (72; 102) from the brake pedal; characterised in that at least one of the first control channel and the second control channel is configured to act as an executive in monitoring braking efforts applied by the one or more brakes as compared to braking efforts applied by the another one or more brakes, and to cause the braking efforts of at least one of the one or more brakes or the another one or more brakes to be modified in an effort to equalize the braking efforts.
Infusion device for administering a medical fluid to a patient, comprising: - a housing, - a receptacle arranged on the housing for receiving a syringe, - a pusher device movable in a pushing direction for acting onto a piston of a syringe received on the receptacle, - a drive element connected to the pusher device, the drive element being longitudinally movable relative to the housing for moving the pusher device along the pushing direction, - a driving rod having a screw thread and being rotatable about a rotational axis, - an electric drive device for rotating the driving rod, - a clutching device connected to the drive element and being actuatable, by an actuation device, to engage, in a clutched state, with the screw thread of the driving rod for translating a rotational movement of the driving rod into a longitudinal movement of the drive element along the driving rod, and to disengage, in an unclutched state, from the driving rod, - a brake device constituted to act, in an activated state, onto the drive element for braking the drive element relative to the housing and to allow, in a deactivated state, a longitudinal movement of the drive element relative to the housing, - a control device to control the electric drive device and the brake device, and - a sensing device for detecting an actuation state of the clutching device, characterized in that the control device is constituted, when the sensing device detects that the clutching device is actuated to change from the unclutched state to the clutched state, to perform a control sequence during which the control device controls the electric drive device to rotate the driving rod for a predetermined duration or for a predetermined angle of rotation while the brake device is in the activated state. - a housing, - a receptacle arranged on the housing for receiving a syringe, - a pusher device movable in a pushing direction for acting onto a piston of a syringe received on the receptacle, - a drive element connected to the pusher device, the drive element being longitudinally movable relative to the housing for moving the pusher device along the pushing direction, - a driving rod having a screw thread and being rotatable about a rotational axis, - an electric drive device for rotating the driving rod, - a clutching device connected to the drive element and being actuatable, by an actuation device, to engage, in a clutched state, with the screw thread of the driving rod for translating a rotational movement of the driving rod into a longitudinal movement of the drive element along the driving rod, and to disengage, in an unclutched state, from the driving rod, - a brake device constituted to act, in an activated state, onto the drive element for braking the drive element relative to the housing and to allow, in a deactivated state, a longitudinal movement of the drive element relative to the housing, - a control device to control the electric drive device and the brake device, and - a sensing device for detecting an actuation state of the clutching device,