mhurhangee/ep-ind-claims huggingface dataset:
Method for estimating a depth for pixels in a matrix of M images of a light field content, with M > 2, comprising, at least for one set of N images (200N, 200N') taken among said M images, 2 < N ≤ M, a process comprising: - determining depth maps for the images in said set of N images delivering a set of N depth maps; and - for at least one current pixel in a current image of said set of N images: - deciding if a candidate depth corresponding to a depth value associated with said current pixel in a depth map of said set of N depth maps is consistent or not with the other depth map(s) of said set of N depth maps; and - selecting said candidate depth as being the estimated depth for said current pixel, if said candidate depth is decided as consistent with the other depth map(s) of said set of N depth maps. - determining depth maps for the images in said set of N images delivering a set of N depth maps; and - for at least one current pixel in a current image of said set of N images: - deciding if a candidate depth corresponding to a depth value associated with said current pixel in a depth map of said set of N depth maps is consistent or not with the other depth map(s) of said set of N depth maps; and - selecting said candidate depth as being the estimated depth for said current pixel, if said candidate depth is decided as consistent with the other depth map(s) of said set of N depth maps. - deciding if a candidate depth corresponding to a depth value associated with said current pixel in a depth map of said set of N depth maps is consistent or not with the other depth map(s) of said set of N depth maps; and - selecting said candidate depth as being the estimated depth for said current pixel, if said candidate depth is decided as consistent with the other depth map(s) of said set of N depth maps.
Plinabulin for use in reducing the neutropenia rate of a grade 3 or 4 neutropenia in a subject being administered with 75 mg/m 2 docetaxel, wherein the plinabulin is administered intravenously at about 20 mg/m 2 to about 30 mg/m 2 wherein the plinabulin is administered within 1 h and 24 h after administering the docetaxel.
Method of determining an oxidation-reduction potential in a formation having a surface, the method comprising acts of - placing a reference electrode at the surface; - penetrating by direct push a probe carrying an oxidation-reduction electrode directly into the formation, while the reference electrode is at the surface; - determining the oxidation-reduction potential as a potential difference between the reference electrode and the oxidation-reduction electrode, characterized in that the act of determining the oxidation-reduction potential is performed whilst penetrating. - placing a reference electrode at the surface; - penetrating by direct push a probe carrying an oxidation-reduction electrode directly into the formation, while the reference electrode is at the surface; - determining the oxidation-reduction potential as a potential difference between the reference electrode and the oxidation-reduction electrode, characterized in that the act of determining the oxidation-reduction potential is performed whilst penetrating.
A system for emergency apneic oxygenation comprising: a cannula comprising an inner passage of an inner diameter; and a distal portion having a first outer diameter greater than the inner diameter; a trocar configured to engage the cannula by passing through the inner passage; and a system base comprising a panel including a system base opening that has a diameter about equal to the first outer diameter; and characterised by a bumper with an arcuate surface shaped to be received by a recess formed by a cricothyroid membrane between a thyroid cartilage and a cricoid cartilage of a target subject so that the system base opening is centered on the cricothyroid membrane to provide an entry point for the trocar engaged with the cannula. a cannula comprising an inner passage of an inner diameter; and a distal portion having a first outer diameter greater than the inner diameter; an inner passage of an inner diameter; and a distal portion having a first outer diameter greater than the inner diameter; a trocar configured to engage the cannula by passing through the inner passage; and a system base comprising a panel including a system base opening that has a diameter about equal to the first outer diameter; and characterised by a bumper with an arcuate surface shaped to be received by a recess formed by a cricothyroid membrane between a thyroid cartilage and a cricoid cartilage of a target subject so that the system base opening is centered on the cricothyroid membrane to provide an entry point for the trocar engaged with the cannula. a panel including a system base opening that has a diameter about equal to the first outer diameter; and characterised by a bumper with an arcuate surface shaped to be received by a recess formed by a cricothyroid membrane between a thyroid cartilage and a cricoid cartilage of a target subject so that the system base opening is centered on the cricothyroid membrane to provide an entry point for the trocar engaged with the cannula.
A control system for controlling at least collective pitch of rotor blades (1b, 1c) of a multi-blade rotor in a rotary-wing aircraft, wherein the multi-blade rotor comprises a rotor shaft that defines an associated rotor axis, the control system comprising: - a non-rotating sliding sleeve that is mountable to the rotor shaft such that the non-rotating sliding sleeve is axially displaceable coaxially to the associated rotor axis on the rotor shaft, - at least one actuator arm that is pivotally mounted to the non-rotating sliding sleeve, the at least one actuator arm being adapted for axially displacing the non-rotating sliding sleeve that is mounted to the rotor shaft upon activation, - at least one hinge support that is adapted for a hinged support of the at least one actuator arm such that a rotational movement of the at least one actuator arm on the at least one hinge support upon activation is translatable into a pivotal movement of the at least one actuator arm on the non-rotating sliding sleeve that is adapted to cause an axial displacement on the rotor shaft of the non-rotating sliding sleeve that is mounted to the rotor shaft, the at least one hinge support comprising at least one carrier element that is adapted for carrying the at least one actuator arm, characterized in that the at least one carrier element comprises fiber reinforced composite material and at least one elastically deformable support arm (33a, 33b, 33c, 33d), the at least one elastically deformable support arm (33a, 33b, 33c, 33d) comprising at least one slotted section that is elastically deformable. - a non-rotating sliding sleeve that is mountable to the rotor shaft such that the non-rotating sliding sleeve is axially displaceable coaxially to the associated rotor axis on the rotor shaft, - at least one actuator arm that is pivotally mounted to the non-rotating sliding sleeve, the at least one actuator arm being adapted for axially displacing the non-rotating sliding sleeve that is mounted to the rotor shaft upon activation, - at least one hinge support that is adapted for a hinged support of the at least one actuator arm such that a rotational movement of the at least one actuator arm on the at least one hinge support upon activation is translatable into a pivotal movement of the at least one actuator arm on the non-rotating sliding sleeve that is adapted to cause an axial displacement on the rotor shaft of the non-rotating sliding sleeve that is mounted to the rotor shaft,
A rotor (10, 12; 500) for a vacuum pump having a piston (38; 502, 504), wherein the piston has a jacket body (40; 532, 552) and a cover plate (42, 44; 520, 526, 540, 546) connected to an end face of the jacket body, characterized in that the cover plate (42, 44; 520, 526, 540, 546) comprises a closure plate (420, 440; 522, 528, 542, 548) and a transition plate (422, 442; 524, 530, 544, 550) connected to the closure plate.
Method for modifying a stream of encrypted audio and/or video data, the method being carried out by a device that receives said stream as input and transmits, as output, a stream of encrypted audio and/or video data corresponding to the data of the incoming stream after modification, the device being connected to a control source, characterized in that the method comprises the following steps: - receiving a message from the control source, said message comprising information making it possible to identify a separation of the incoming stream of encrypted audio and/or video data into at least one first substream of encrypted data and one second substream of encrypted data; - decrypting the encrypted data of the identified one or more first substreams; - making a modification to the decrypted data of the identified one or more first substreams, the modification being made based on information received from the control source; - encrypting the modified data of the one or more first substreams; and - combining the one or more first substreams of modified and encrypted data with the second substream so as to obtain the stream of encrypted audio and/or video data transmitted as output by the device. - receiving a message from the control source, said message comprising information making it possible to identify a separation of the incoming stream of encrypted audio and/or video data into at least one first substream of encrypted data and one second substream of encrypted data; - decrypting the encrypted data of the identified one or more first substreams; - making a modification to the decrypted data of the identified one or more first substreams, the modification being made based on information received from the control source; - encrypting the modified data of the one or more first substreams; and - combining the one or more first substreams of modified and encrypted data with the second substream so as to obtain the stream of encrypted audio and/or video data transmitted as output by the device.
A CO 2 membrane separation and recovery system for a CO 2 membrane separation and recovery from a gas mixture containing at least steam and CO 2, the gas mixture being a natural gas or a biogas that contains methane gas as major component and steam, wherein the system comprises a dehydration means preliminary to a CO 2 membrane separation means, the CO 2 membrane separation means comprising a hydrophilic zeolite membrane that exhibits CO 2 selective permeability and is formed on a porous substrate, the hydrophilic zeolite membrane having been subjected to a dehydration treatment by a heat treatment at from 100 to 800°C.
A system for manufacturing three-dimensional structures, the system comprising a plurality of printing stations and a robotic unit configured to interact with the plurality of printing stations, each of the plurality of printing stations being arranged to be accessible by the robotic unit, and wherein each printing station comprises a detachable carrier, a deposition unit with at least one nozzle arranged for dispensing filaments of a build material paste through an opening area thereof, and a station controller configured to operate the deposition unit for deposition of filaments of the build material paste on the detachable carrier in an interconnected arrangement in a plurality of stacked layers in order to form one or more three-dimensional structures, the at least one nozzle and the detachable carrier being relatively moveable with respect to each other, wherein the station controller of each of the printing stations is configured to control at least one deposition control parameter, wherein the robotic unit includes a handling device for handling detachable carriers, wherein the robotic unit is configured for providing, removing and/or replacing detachable carriers in the plurality of printing stations, and wherein the system further includes a system controller configured to operate the robotic unit, and wherein the system controller is communicatively coupled to the plurality of printing stations for controlling at least an execution of printing tasks being performed on the plurality of printing stations, wherein the system controller is communicatively coupled to the station controllers of the plurality of printing stations, and wherein the station controllers are at least partially controllable by means of the system controller, characterized in that the system controller is configured to adjust at least one deposition control parameter of each printing station independent of deposition control parameters of other printing stations of the plurality of printing stations.
A system to direct print onto print substrates, comprising: a print head, wherein a print substrate will move in a process direction past the print head; characterized by at least one optical image sensor arranged adjacent the print substrate; at least one telecentric lens arranged between the print substrate and the at least one image sensor; and control circuitry electrically connected to the at least one optical image sensor and the print head, the control circuitry to generate dot clocks to cause the print head to print onto the substrate based upon data from the at least one optical image sensor identifying a position of the print substrate. a print head, wherein a print substrate will move in a process direction past the print head; characterized by at least one optical image sensor arranged adjacent the print substrate; at least one telecentric lens arranged between the print substrate and the at least one image sensor; and control circuitry electrically connected to the at least one optical image sensor and the print head, the control circuitry to generate dot clocks to cause the print head to print onto the substrate based upon data from the at least one optical image sensor identifying a position of the print substrate.
An inkjet printing method on natural leather comprising the steps: a) providing a hide, having an edge, on a rigid support for obtaining a flat decoration area of the hide; b) fastening the hide to the rigid support by clamping the edge; and c) jetting with a inkjet printhead unit, facing a side of the flat decoration area, a decorative image on the flat decoration area of the fastened hide; and wherein the edge is clamped opposite to the side of the flat decoration area. a) providing a hide, having an edge, on a rigid support for obtaining a flat decoration area of the hide; b) fastening the hide to the rigid support by clamping the edge; and c) jetting with a inkjet printhead unit, facing a side of the flat decoration area, a decorative image on the flat decoration area of the fastened hide; and wherein the edge is clamped opposite to the side of the flat decoration area.
A method for requesting a current magnitude from a fuel cell, the method comprising: based at least on one of a battery state of charge, a coolant temperature, and a fan speed, determining whether to operate under normal processing, smart idle processing, or smart ceiling processing; if a determination is made for normal processing requesting a current magnitude from the fuel cell, where the current magnitude requested is based at least on the battery state of charge and is performed in a stepwise manner where each current magnitude step includes a debounce range with respect to at least one other current magnitude step and outputting by the fuel cell the requested current magnitude; if a determination is made for smart idle processing requesting a current magnitude from the fuel cell, where the current magnitude requested is based at least on the battery state of charge and the coolant temperature and the current magnitude requested is sufficiently high to raise the coolant temperature towards a coolant temperature setpoint and outputting by the fuel cell the requested current magnitude; and if a determination is made for smart ceiling processing requesting a current magnitude from the fuel cell, where the current magnitude requested is based on at least a fan speed and the coolant temperature and the current magnitude requested is sufficiently low to reduce the coolant temperature towards a coolant temperature setpoint and outputting by the fuel cell the requested current magnitude. based at least on one of a battery state of charge, a coolant temperature, and a fan speed, determining whether to operate under normal processing, smart idle processing, or smart ceiling processing; if a determination is made for normal processing requesting a current magnitude from the fuel cell, where the current magnitude requested is based at least on the battery state of charge and is performed in a stepwise manner where each current magnitude step includes a debounce range with respect to at least one other current magnitude step and outputting by the fuel cell the requested current magnitude; if a determination is made for smart idle processing requesting a current magnitude from the fuel cell, where the current magnitude requested is based at least on the battery state of charge and the coolant temperature and the current magnitude requested is sufficiently high to raise the coolant temperature towards a coolant temperature setpoint and outputting by the fuel cell the requested current magnitude; and if a determination is made for smart ceiling processing requesting a current magnitude from the fuel cell, where the current magnitude requested is based on at least a fan speed and the coolant temperature and the current magnitude requested is sufficiently low to reduce the coolant temperature towards a coolant temperature setpoint and outputting by the fuel cell the requested current magnitude.
Handheld medical instrument for analyzing a body fluid, in particular for blood glucose tests, comprising a) a housing having a cassette compartment construed for receiving an exchangeable tape cassette, b) a transport mechanism comprising a manual drive which can be actuated by a user in order to rotate a tape spool of the tape cassette, wherein a test tape of the tape cassette is wound forwards and functional elements stored thereon are provided for successive use, characterized by c) a stop device acting on the transport mechanism and designed to stop the test tape in a functional position of a functional element. a) a housing having a cassette compartment construed for receiving an exchangeable tape cassette, b) a transport mechanism comprising a manual drive which can be actuated by a user in order to rotate a tape spool of the tape cassette, wherein a test tape of the tape cassette is wound forwards and functional elements stored thereon are provided for successive use, characterized by c) a stop device acting on the transport mechanism and designed to stop the test tape in a functional position of a functional element.
A printhead that performs printing by supplying a drive signal inputted to a second terminal to a drive element according to print data inputted to a first terminal, the printhead comprising: the first terminal; the second terminal; characterised in that the printhead further comprises a determination circuit configured to perform based on different criteria, first determination to determine, in response to a first signal inputted to the first terminal, whether a potential of the second terminal is normal and second determination to determine, in response to a second signal inputted to the first terminal, whether the potential of the second terminal is normal; and a permission circuit configured to permit printing when the potential of the second terminal is determined to be normal in the first determination and second determination and does not permit printing when the potential of the second terminal is determined to be not normal in the first determination or second determination. the first terminal; the second terminal; characterised in that the printhead further comprises a determination circuit configured to perform based on different criteria, first determination to determine, in response to a first signal inputted to the first terminal, whether a potential of the second terminal is normal and second determination to determine, in response to a second signal inputted to the first terminal, whether the potential of the second terminal is normal; and a permission circuit configured to permit printing when the potential of the second terminal is determined to be normal in the first determination and second determination and does not permit printing when the potential of the second terminal is determined to be not normal in the first determination or second determination.
An electronic device comprising: a substrate including a metal stiffener configured to control package mechanical warpage of the substrate; a plurality of radiation sources (1 10a, 110b) configured to emit electromagnetic interference and/or radio-frequency interference, and a plurality of radiation sensitive devices (112a, 112b) arranged on the substrate; a ground on the substrate, wherein the ground extends around each of the radiation sources and the radiation sensitive devices, and wherein the ground is configured to be part of the metal stiffener; and a heat spreader arranged to be located over the plurality of radiation sources and the plurality of radiation sensitive devices, wherein the heat spreader includes a plurality of ground coupling mechanisms coupled to the metal stiffener, and thereby be in electrical contact with the ground on the substrate; and wherein the heat spreader, and the plurality of ground coupling mechanisms coupled to the metal stiffener, are arranged to form respective Faraday cages around each of the radiation sources and the radiation sensitive devices. a substrate including a metal stiffener configured to control package mechanical warpage of the substrate; a plurality of radiation sources (1 10a, 110b) configured to emit electromagnetic interference and/or radio-frequency interference, and a plurality of radiation sensitive devices (112a, 112b) arranged on the substrate; a ground on the substrate, wherein the ground extends around each of the radiation sources and the radiation sensitive devices, and wherein the ground is configured to be part of the metal stiffener; and a heat spreader arranged to be located over the plurality of radiation sources and the plurality of radiation sensitive devices, wherein the heat spreader includes a plurality of ground coupling mechanisms coupled to the metal stiffener, and thereby be in electrical contact with the ground on the substrate; and wherein the heat spreader, and the plurality of ground coupling mechanisms coupled to the metal stiffener, are arranged to form respective Faraday cages around each of the radiation sources and the radiation sensitive devices.