mhurhangee/patent-ind-claim-en huggingface dataset:
A method for generating magnetic resonance, MR, images of a subject from MR data obtained by a magnetic resonance imaging, MRI, system , the method comprising: obtaining input MR spatial frequency data obtained by imaging the subject using the MRI system; and generating an MR image of the subject from the input MR spatial frequency data using a neural network model comprising: a pre-reconstruction neural network configured to process the input MR spatial frequency data, wherein the pre-reconstruction neural network comprises a first neural network configured to suppress RF interference, the first neural network comprising one or more convolutional layers and trained using one or more iterative optimization techniques; a reconstruction neural network configured to generate at least one initial image (230-1,...,230-N) of the subject from output of the pre-reconstruction neural network; and a post-reconstruction neural network configured to generate the MR image of the subject from the at least one initial image of the subject. obtaining input MR spatial frequency data obtained by imaging the subject using the MRI system; and generating an MR image of the subject from the input MR spatial frequency data using a neural network model comprising: a pre-reconstruction neural network configured to process the input MR spatial frequency data, wherein the pre-reconstruction neural network comprises a first neural network configured to suppress RF interference, the first neural network comprising one or more convolutional layers and trained using one or more iterative optimization techniques; a reconstruction neural network configured to generate at least one initial image (230-1,...,230-N) of the subject from output of the pre-reconstruction neural network; and a post-reconstruction neural network configured to generate the MR image of the subject from the at least one initial image of the subject. a pre-reconstruction neural network configured to process the input MR spatial frequency data, wherein the pre-reconstruction neural network comprises a first neural network configured to suppress RF interference, the first neural network comprising one or more convolutional layers and trained using one or more iterative optimization techniques; a reconstruction neural network configured to generate at least one initial image (230-1,...,230-N) of the subject from output of the pre-reconstruction neural network; and a post-reconstruction neural network configured to generate the MR image of the subject from the at least one initial image of the subject.
A system for reducing pulsatile pressure, the system comprising: a balloon (102, 102', 102") configured to be implanted in a blood vessel and to transition between an expanded state and a collapsed state ; and a fluid mixture disposed within the balloon and comprising one or more constituent fluids and a diffusion-resistant fluid configured to maintain a desired volume and pressure within the balloon throughout multiple cardiac cycles, wherein the fluid mixture is pressurized within the balloon such that the balloon transitions between the expanded state and the collapsed state responsive to pressure fluctuations in the blood vessel, and partial pressures of the one or more constituent fluids match partial pressures of corresponding fluids in the blood surrounding the balloon within the blood vessel to reduce permeation of fluids across the balloon throughout multiple cardiac cycles. a balloon (102, 102', 102") configured to be implanted in a blood vessel and to transition between an expanded state and a collapsed state ; and a fluid mixture disposed within the balloon and comprising one or more constituent fluids and a diffusion-resistant fluid configured to maintain a desired volume and pressure within the balloon throughout multiple cardiac cycles, wherein the fluid mixture is pressurized within the balloon such that the balloon transitions between the expanded state and the collapsed state responsive to pressure fluctuations in the blood vessel, and partial pressures of the one or more constituent fluids match partial pressures of corresponding fluids in the blood surrounding the balloon within the blood vessel to reduce permeation of fluids across the balloon throughout multiple cardiac cycles.
A method of estimating a Gleason score that represents the malignancy of prostate cancer in a patient said method comprising: measuring the amount of a prostate-specific antigen (PSA) having an N -acetylgalactosamine residue at a non-reducing terminal of a sugar chain in a sample from said patient; and estimating that said Gleason score is 7 or higher when the thus measured value is larger than a threshold value, or estimating that said Gleason score is 6 or lower when said measured value is smaller than a threshold value. measuring the amount of a prostate-specific antigen (PSA) having an N -acetylgalactosamine residue at a non-reducing terminal of a sugar chain in a sample from said patient; and estimating that said Gleason score is 7 or higher when the thus measured value is larger than a threshold value, or estimating that said Gleason score is 6 or lower when said measured value is smaller than a threshold value.
A touch panel comprising: a receiver (110, 110") configured to receive response signals from a plurality of objects (10-40, 200-n); and a controller (140, 140', 140") configured to identify positions of the plurality of objects (10-40, 200-n) based on different frequencies emitted from each of the plurality of objects (10-40, 200-n) in response to the response signals being simultaneously received through the receiver (110, 110"), wherein the controller (140, 140', 140") is further configured to alternately perform a first scanning operation that determines a position of a contact object (10-40, 200-n) using all the response signals of the plurality of antenna loops (111-n) and a second scanning operation that determines a position of a contact object (10-40, 200-n) only using a response signal of a loop group corresponding to the detected contact object (10-40, 200-n) in the first scanning operation, wherein the receiver (110, 110") is further configured to include a plurality of antenna loops (111-n) and a plurality of electrodes, characterized by a driver configured to apply a driving signal to the plurality of electrodes before the first scanning operation. a receiver (110, 110") configured to receive response signals from a plurality of objects (10-40, 200-n); and a controller (140, 140', 140") configured to identify positions of the plurality of objects (10-40, 200-n) based on different frequencies emitted from each of the plurality of objects (10-40, 200-n) in response to the response signals being simultaneously received through the receiver (110, 110"), wherein the controller (140, 140', 140") is further configured to alternately perform a first scanning operation that determines a position of a contact object (10-40, 200-n) using all the response signals of the plurality of antenna loops (111-n) and a second scanning operation that determines a position of a contact object (10-40, 200-n) only using a response signal of a loop group corresponding to the detected contact object (10-40, 200-n) in the first scanning operation, wherein the receiver (110, 110") is further configured to include a plurality of antenna loops (111-n) and a plurality of electrodes, characterized by a driver configured to apply a driving signal to the plurality of electrodes before the first scanning operation.
A method of reconstructing at least one print image , representative of a papillary print, from a set of more than two image portions acquired by means of at least one sensor, the reconstruction method comprising the steps, carried out by at least one electrical processing unit, of: - extracting from each image portion of all image portions a set of local points of interest (step E1), said set of local points of interest characterizing the image portion and, for each local point of interest, calculating a descriptor vector that characterizes said local point of interest; - for each pair of two image portions, evaluating from the sets of local points of interest and from the descriptor vectors of said two image portions an association score representative of a probability that the two image portions are contiguous on the print image; - assembling the image portions of a better pair for which the association score is highest, in order to form an assembled fragment (step E4); - repeating the steps above, each time replacing, in all the image portions, the two image portions of the better pair with the assembled fragment, until all the association scores of the remaining pairs are less than or equal to a predetermined threshold, and thus producing an assembly map of the image portions; - merging the image portions according to the assembly map obtained during the assembly steps in order to reproduce the print image (step E5). - extracting from each image portion of all image portions a set of local points of interest (step E1), said set of local points of interest characterizing the image portion and, for each local point of interest, calculating a descriptor vector that characterizes said local point of interest; - for each pair of two image portions, evaluating from the sets of local points of interest and from the descriptor vectors of said two image portions an association score representative of a probability that the two image portions are contiguous on the print image; - assembling the image portions of a better pair for which the association score is highest, in order to form an assembled fragment (step E4); - repeating the steps above, each time replacing, in all the image portions, the two image portions of the better pair with the assembled fragment, until all the association scores of the remaining pairs are less than or equal to a predetermined threshold, and thus producing an assembly map of the image portions; - merging the image portions according to the assembly map obtained during the assembly steps in order to reproduce the print image (step E5).
A carrier device for LED arrays, comprising a holder which comprises: a first end and a second end ; three elongated outer walls (4, 4', 4") extending between the first and second end , wherein each wall is laterally connected to the other two walls by a water impermeable connection (5, 5', 5"), and wherein the walls are oriented with respect to each other to define a space of substantially equilateral triangular cross section; and a first and second hollow compartment within said space, wherein each outer wall comprises one or more means for receiving a LED array on its outer surface, wherein at said first end a first closing means is provided and at said second end a second closing means is provided, wherein said first closing means comprises an inlet for introducing a cooling liquid into said first hollow compartment , and an outlet for passing said cooling liquid out of said second hollow compartment ; wherein at the second end of said holder one or more channels are provided which allow flow of said cooling liquid between the first hollow compartment and the second hollow compartment . a first end and a second end ; three elongated outer walls (4, 4', 4") extending between the first and second end , wherein each wall is laterally connected to the other two walls by a water impermeable connection (5, 5', 5"), and wherein the walls are oriented with respect to each other to define a space of substantially equilateral triangular cross section; and a first and second hollow compartment within said space, wherein each outer wall comprises one or more means for receiving a LED array on its outer surface, wherein at said first end a first closing means is provided and at said second end a second closing means is provided, wherein said first closing means comprises an inlet for introducing a cooling liquid into said first hollow compartment , and an outlet for passing said cooling liquid out of said second hollow compartment ; wherein at the second end of said holder one or more channels are provided which allow flow of said cooling liquid between the first hollow compartment and the second hollow compartment .
An assembly for an aircraft propulsion system , comprising: a nacelle inner structure extending axially along and circumferentially about an axial centerline , the nacelle inner structure comprising an internal compartment and a cowl ; the internal compartment configured to house a core of a gas turbine engine ; the cowl configured to form an outer radial periphery of the internal compartment , and an aft end portion of the cowl further configured to form an outer radial periphery of a compartment exhaust to the internal compartment ; and the aft end portion of the cowl comprising a plurality of axial fingers arranged circumferentially about the axial centerline in an array , characterised in that : the plurality of axial fingers comprise a plurality of first axial fingers and the array comprises a first array , and the aft end portion of the cowl further comprises a plurality of second axial fingers arranged circumferentially about the axial centerline in a second array ; and the first array is radially outboard of and overlaps the second array . a nacelle inner structure extending axially along and circumferentially about an axial centerline , the nacelle inner structure comprising an internal compartment and a cowl ; the internal compartment configured to house a core of a gas turbine engine ; the cowl configured to form an outer radial periphery of the internal compartment , and an aft end portion of the cowl further configured to form an outer radial periphery of a compartment exhaust to the internal compartment ; and the aft end portion of the cowl comprising a plurality of axial fingers arranged circumferentially about the axial centerline in an array , the plurality of axial fingers comprise a plurality of first axial fingers and the array comprises a first array , and the aft end portion of the cowl further comprises a plurality of second axial fingers arranged circumferentially about the axial centerline in a second array ; and the first array is radially outboard of and overlaps the second array .
A method executed on a handset for communicating with a message server to register the handset with the message server , the method comprising: transmitting a handset identifier that identifies the handset to the message server ; transmitting a return password to the message server via a second communication channel, in response to the handset receiving a temporary password from the message server via a first communication channel; receiving an authentication acknowledgement from the message server in the event the temporary password matches the return password at the message server ; upon receiving the authentication acknowledgement from the message server , generating a public key and a corresponding private key using asymmetric key generation; transmitting the public key to the message server ; and storing the private key on the handset . transmitting a handset identifier that identifies the handset to the message server ; transmitting a return password to the message server via a second communication channel, in response to the handset receiving a temporary password from the message server via a first communication channel; receiving an authentication acknowledgement from the message server in the event the temporary password matches the return password at the message server ; upon receiving the authentication acknowledgement from the message server , generating a public key and a corresponding private key using asymmetric key generation; transmitting the public key to the message server ; and storing the private key on the handset .
An apparatus comprising: a plurality of variable phase shifters configured to receive signals from respective antenna elements in an antenna array, each of the variable phase shifters comprising a pair of phase shift elements configured to apply respective phase shifts relative to a channel phase shift associated with the antenna element from which the variable phase shifter is configured to receive signals, the respective phase shifts corresponding to side angles from a current antenna beam direction of the antenna array; and a beamforming tracking controller , coupled to receive phase shifted signals from the variable phase shifters, configured to generate control signals based on the phase shifted signals to control the channel phase shifts; wherein each of the variable phase shifters further comprises a variable phase shift element configured to apply to received signals the channel phase shift associated with the antenna element from which the variable phase shifter is configured to receive signals, wherein the pair of phase shift elements are coupled to the variable phase shift element. a plurality of variable phase shifters configured to receive signals from respective antenna elements in an antenna array, each of the variable phase shifters comprising a pair of phase shift elements configured to apply respective phase shifts relative to a channel phase shift associated with the antenna element from which the variable phase shifter is configured to receive signals, the respective phase shifts corresponding to side angles from a current antenna beam direction of the antenna array; and a beamforming tracking controller , coupled to receive phase shifted signals from the variable phase shifters, configured to generate control signals based on the phase shifted signals to control the channel phase shifts; wherein each of the variable phase shifters further comprises a variable phase shift element configured to apply to received signals the channel phase shift associated with the antenna element from which the variable phase shifter is configured to receive signals, wherein the pair of phase shift elements are coupled to the variable phase shift element.
Hollow body selected from liquid storage and handling containers, tubing, pipes, and hoses, said hollow body comprising only three contiguous layers in the order L1/L2/L1, wherein L1 is both the inner and the outer layer and L2 is the intermediate layer and wherein : layer L1 comprises an aromatic polyamide and an impact modifier, and, layer L2 comprises an aliphatic polyamide, wherein said impact modifier is in an amount of from 2 weight% to 40 weight% based on total weight of composition L1, wherein said aromatic polyamide is selected from : - aromatic polyamides comprising more than 50 mole % of recurring units formed by the polycondensation reaction between at least one aliphatic diacid and metaxylylenediamine, and - aromatic polyamides comprising more than 50 mole % of recurring units formed by the polycondensation reaction between at least one of terephthalic acid, isophthalic acid, and phthalic acid and at least one aliphatic diamine, wherein said aliphatic diamine is hexamethylenediamine. layer L1 comprises an aromatic polyamide and an impact modifier, and, layer L2 comprises an aliphatic polyamide, - aromatic polyamides comprising more than 50 mole % of recurring units formed by the polycondensation reaction between at least one aliphatic diacid and metaxylylenediamine, and - aromatic polyamides comprising more than 50 mole % of recurring units formed by the polycondensation reaction between at least one of terephthalic acid, isophthalic acid, and phthalic acid and at least one aliphatic diamine, wherein said aliphatic diamine is hexamethylenediamine.
A ventilation control device controlling ventilation of a building, comprising: an air supply/exhaust controller configured to control the operation of an air supplier/exhauster comprising air supply function and exhaust function, a wind information acquirer configured to acquire as wind information regarding the outdoor wind respective measurement results from a wind pressure sensor and a wind pressure sensor measuring an outdoor wind pressure, the wind pressure sensor being installed near the air supplier/exhauster , and the wind pressure sensor installed near a vent provided to the building, and a wind direction determiner configured to determine whether the installation point of the air supplier/exhauster is in the wind or off the wind based on the wind information, wherein the air supply/exhaust controller is configured to order the air supplier/exhauster to conduct, air supply operation when the air supplier/exhauster is in the wind or exhaust operation when the air supplier/exhauster is off the wind; and the ventilation control device is configured to adjust at least one of a performance or operation time of the air supplier/exhauster in accordance with the outdoor wind force; where the ventilation through a ventilation passage from the air supplier/exhauster to the vent is conducted when the air supplier/exhauster conducts air supply operation and alternatively, the ventilation through the ventilation passage from the vent to the air supplier/exhauster is conducted when the air supplier/exhauster conducts exhaust operation. an air supply/exhaust controller configured to control the operation of an air supplier/exhauster comprising air supply function and exhaust function, a wind information acquirer configured to acquire as wind information regarding the outdoor wind respective measurement results from a wind pressure sensor and a wind pressure sensor measuring an outdoor wind pressure, the wind pressure sensor being installed near the air supplier/exhauster , and the wind pressure sensor installed near a vent provided to the building, and a wind direction determiner configured to determine whether the installation point of the air supplier/exhauster is in the wind or off the wind based on the wind information, wherein the air supply/exhaust controller is configured to order the air supplier/exhauster to conduct, air supply operation when the air supplier/exhauster is in the wind or exhaust operation when the air supplier/exhauster is off the wind; and the ventilation control device is configured to adjust at least one of a performance or operation time of the air supplier/exhauster in accordance with the outdoor wind force; where the ventilation through a ventilation passage from the air supplier/exhauster to the vent is conducted when the air supplier/exhauster conducts air supply operation and alternatively, the ventilation through the ventilation passage from the vent to the air supplier/exhauster is conducted when the air supplier/exhauster conducts exhaust operation.
A sealing element having a sealing surface for providing a seal against a contact surface, the sealing element comprising: an elastomeric body comprising an elastomeric material; and a sintered polytetrafluoroethylene (PTFE) film coupled to the elastomeric body, and defining the sealing surface; the film having a thickness between around 25 microns and 200 microns, and the film comprising between around 5wt% and 40wt% of a lubricious particulate material. an elastomeric body comprising an elastomeric material; and a sintered polytetrafluoroethylene (PTFE) film coupled to the elastomeric body, and defining the sealing surface; the film having a thickness between around 25 microns and 200 microns, and the film comprising between around 5wt% and 40wt% of a lubricious particulate material.
Boiler wall protection block for furnishing a boiler wall, comprising: - An essentially parallellogram-shaped body ; and - an annular cut-out at all four corners, with the cutting point (A, B, C, D) of two adjacent sides as a centre, characterised in that each of the annular cut-outs is configured to be held in place by ferrules that are received at least partly in the annular cut-outs, and two adjacent sides of the body have a protrusion , and the other two sides have a corresponding recess , wherein the protrusions and recesses are formed such as to allow two adjacent blocks to lock each other and prevent direct radiation of heat from reaching the boiler. - An essentially parallellogram-shaped body ; and - an annular cut-out at all four corners, with the cutting point (A, B, C, D) of two adjacent sides as a centre,