mhurhangee/patent-ind-claim-en huggingface dataset:
A surgical imaging system comprising: a multispectral electromagnetic radiation (EMR) source configured to emit EMR at a first wavelength range and a second wavelength range; an image sensor configured to sense the EMR at each of the first wavelength range and the second wavelength range reflected from a target site; and a control circuit coupled to the image sensor; wherein the control circuit is configured to: generate a first image of the target site according to the EMR emitted at the first wavelength range; generate a second image of the target site according to the EMR emitted at the second wavelength range; determine whether the first image is at least partially obstructed; and generate a fused image comprising a fusion between an unobstructed segment of the first image and a segment of the second image corresponding to an obstructed segment of the first image. a multispectral electromagnetic radiation (EMR) source configured to emit EMR at a first wavelength range and a second wavelength range; an image sensor configured to sense the EMR at each of the first wavelength range and the second wavelength range reflected from a target site; and a control circuit coupled to the image sensor; wherein the control circuit is configured to: generate a first image of the target site according to the EMR emitted at the first wavelength range; generate a second image of the target site according to the EMR emitted at the second wavelength range; determine whether the first image is at least partially obstructed; and generate a fused image comprising a fusion between an unobstructed segment of the first image and a segment of the second image corresponding to an obstructed segment of the first image. generate a first image of the target site according to the EMR emitted at the first wavelength range; generate a second image of the target site according to the EMR emitted at the second wavelength range; determine whether the first image is at least partially obstructed; and generate a fused image comprising a fusion between an unobstructed segment of the first image and a segment of the second image corresponding to an obstructed segment of the first image.
Multiple link conveyor belt for the transportation of objects like containers, bottles, packs or the like, which is formed of a plurality of pivotally interconnected links , each comprising an elongated carrier , the underside of the carrier forming a supporting section of the conveyor belt , the carrier furthermore comprising parallel spherical bearings on both its longitudinal sides for a rotationally articulated connection to adjacent links , whereby the spherical bearings of respectively adjacent, interconnected links are connected in each case via at least one joint bolt , which passes through the spherical bearings of the two interconnected links and whereby the spherical bearings are connected in such a way, that the adjacent links are pivotally connected around the at least one joint bolt , and wherein each carrier of a link has at least one row of rotatably mounted supporting rollers on its upper side, whose axes of rotation are parallel to the joint bolt and to the longitudinal sides of the carrier of the link and which form a support plane for the objects to be transported together with the supporting rollers of the adjacent links , characterized in that deflection elements or guard discs formed as extensions of elongated plates are provided in the region of at least one longitudinal side of the links , projecting between an uppermost level of the supporting rollers and a basal level of the upper sides of the carrier and at least one side of the supporting rollers , wherein the deflection elements or guard discs of each link respectively engage and/or project into gaps between adjacent rollers of the link .
An insulating product, suitable for the thermal insulation of an oven or a part of an oven, said product being formed from at least one insulating material based on aerogel(s) in the form of at least one fibrous layer, of the type of a mat or mats or pad or lap or laps formed from fibers, forming a porous or discontinuous structure, containing aerogels, characterized in that the said product comprises less than 0.55% by weight of hydrophobizing agent(s.
A moving robot comprising: a main body configured to travel a cleaning area and suck foreign substances; a data unit configured to store a map of the cleaning area; an image acquisition unit configured to take images in front of the main body ; a controller , if a monitoring mode is set, configured to set at least one area of a plurality of areas composing the cleaning area based on the map as a monitoring area, set at least one monitoring location for the monitoring area, generate monitoring data based on images being taken by the image acquisition unit while moving in the monitoring area, analyze the monitoring data, monitor the cleaning area and detect intrusion, wherein the controller is configured to analyze the monitoring data, determine a kind of a detected obstacle, detect the movement of the obstacle, and determine whether the intrusion is occurred in cleaning area, wherein, if the intrusion is detected, the controller is configured to cause an alert sound to be output, generate a message concerning the intrusion detection, and transmit it to a mobile terminal or an external security agency. a main body configured to travel a cleaning area and suck foreign substances; a data unit configured to store a map of the cleaning area; an image acquisition unit configured to take images in front of the main body ; a controller , if a monitoring mode is set, configured to set at least one area of a plurality of areas composing the cleaning area based on the map as a monitoring area, set at least one monitoring location for the monitoring area, generate monitoring data based on images being taken by the image acquisition unit while moving in the monitoring area, analyze the monitoring data, monitor the cleaning area and detect intrusion,
A display device comprising: a flexible substrate including an active area (A/A), and a non-active area (N/A) around the active area (A/A), wherein a lower end of the non-active area (N/A) is divided into a first area, a bending area (B/A), and a second area, wherein the first area is between the bending area (B/A) and the active area (A/A), wherein the second area is between the bending area (B/A) and a circuit mount area, wherein the bending area (B/A) is configured to be bent flexibly, wherein by bending of the bending region (B/A), the first area is positioned on a front surface in top view of the display device while the second area is positioned on a rear surface in top view of the display device; a plurality of pixels (P) disposed to display an image in the active area (A/A), each of the plurality of pixels (P) including an organic light emitting diode, OLED, configured to receive a signal from at least one signal line and power from at least one power line to display the image; the at least one signal line and the at least one power line disposed on the flexible substrate , the at least one signal line and the at least one power line being disposed on a same layer in the bending area (B/A); a planarization layer covering the at least one signal line and the at least one power line in the bending area (B/A) . a flexible substrate including an active area (A/A), and a non-active area (N/A) around the active area (A/A), wherein a lower end of the non-active area (N/A) is divided into a first area, a bending area (B/A), and a second area, wherein the first area is between the bending area (B/A) and the active area (A/A), wherein the second area is between the bending area (B/A) and a circuit mount area, wherein the bending area (B/A) is configured to be bent flexibly, wherein by bending of the bending region (B/A), the first area is positioned on a front surface in top view of the display device while the second area is positioned on a rear surface in top view of the display device; a plurality of pixels (P) disposed to display an image in the active area (A/A), each of the plurality of pixels (P) including an organic light emitting diode, OLED, configured to receive a signal from at least one signal line and power from at least one power line to display the image; the at least one signal line and the at least one power line disposed on the flexible substrate , the at least one signal line and the at least one power line being disposed on a same layer in the bending area (B/A); a planarization layer covering the at least one signal line and the at least one power line in the bending area (B/A) .
A microparticle separation system comprising: a microparticle separation chip ; a thin plate for a sample liquid; a thin plate for a sheath liquid ; and suctioning means and/or a suctioning device for suctioning the sheath liquid ; the microparticle separation chip comprising a substrate and at least three or more pillars ; a single capture site for capturing to-be-captured microparticles being formed using the at least three or more pillars having one end provided on the substrate and the other end open above, a spacing Z between any mutually adjacent pillars that form the single capture site being Y < Z ≤ X, where X is the size of the to-be-captured microparticles, and Y is the size of the microparticles to be removed; the at least three or more pillars that form the single capture site being arranged in a positional relationship in which to-be-captured microparticles captured in the capture site do not flow out from between any adjacent pillars; the thin plate for a sample liquid and the thin plate for a sheath liquid being provided so that a gap of 200 to 1000 μm is formed between the thin plates and the pillar-opening side of the microparticle separation chip; and the suctioning means and/or the suctioning device being disposed in contact with an external peripheral side of the microparticle separation chip. a microparticle separation chip ; a thin plate for a sample liquid; a thin plate for a sheath liquid ; and suctioning means and/or a suctioning device for suctioning the sheath liquid ; the microparticle separation chip comprising a substrate and at least three or more pillars ; a single capture site for capturing to-be-captured microparticles being formed using the at least three or more pillars having one end provided on the substrate and the other end open above, a spacing Z between any mutually adjacent pillars that form the single capture site being Y < Z ≤ X, where X is the size of the to-be-captured microparticles, and Y is the size of the microparticles to be removed; the at least three or more pillars that form the single capture site being arranged in a positional relationship in which to-be-captured microparticles captured in the capture site do not flow out from between any adjacent pillars; the thin plate for a sample liquid and the thin plate for a sheath liquid being provided so that a gap of 200 to 1000 μm is formed between the thin plates and the pillar-opening side of the microparticle separation chip; and the suctioning means and/or the suctioning device being disposed in contact with an external peripheral side of the microparticle separation chip.
A computer-implemented method, comprising: receiving, at a computer processor , a seismic dataset representative of the subsurface volume of interest and an initial earth model; performing, via the computer processor , an image domain full waveform inversion, FWI, including backprojection to generate an updated earth model; and performing, via the computer processor , seismic imaging of the seismic dataset using the updated earth model to generate a seismic image, the method being characterized in that the image domain FWI comprises: performing an initial imaging step to create at least one gather of a model perturbation δ m in an extended model domain; enhancing the at least one gather with an operator E to generate at least one enhanced gather that is more consistent with a correct model; creating a residual (E - 1) δ m by subtracting the at least one gather from the at least one enhanced gather; backprojecting the residual in a tomographic FWI operation to obtain a long wavelength background model parameter gradient; and updating the initial earth model using a nonlinear solver and the long wavelength background model parameter gradient to generate the updated earth model; the method further comprising using the seismic image in hydrocarbon exploration or hydrocarbon production. receiving, at a computer processor , a seismic dataset representative of the subsurface volume of interest and an initial earth model; performing, via the computer processor , an image domain full waveform inversion, FWI, including backprojection to generate an updated earth model; and performing, via the computer processor , seismic imaging of the seismic dataset using the updated earth model to generate a seismic image, the method being characterized in that the image domain FWI comprises: performing an initial imaging step to create at least one gather of a model perturbation δ m in an extended model domain; enhancing the at least one gather with an operator E to generate at least one enhanced gather that is more consistent with a correct model; creating a residual (E - 1) δ m by subtracting the at least one gather from the at least one enhanced gather; backprojecting the residual in a tomographic FWI operation to obtain a long wavelength background model parameter gradient; and updating the initial earth model using a nonlinear solver and the long wavelength background model parameter gradient to generate the updated earth model; the method further comprising using the seismic image in hydrocarbon exploration or hydrocarbon production.
A method for printing workpieces (W) having a first pitch along a horizontal transport path using a printing machine, the printing machine comprising: a rising table being vertically movable between a lower, retracted position and an upper, extended position, and tooling fitted to the rising table to be carried therewith, the tooling comprising a plurality of discrete and horizontally spaced support surfaces , the arrangement being such that in use workpieces (W) are conveyed into and through the printing machine along the horizontal transport path, which is vertically above the tooling when the rising table is in the retracted position, and a support surface may be brought into engagement with a workpiece (W) by raising the rising table toward the extended position, to enable a printing operation to be performed to print the engaged workpiece (W), the method comprising transporting a plurality of workpieces (W) to be printed into the printing machine along the horizontal transport path, wherein the plurality of support surfaces are spaced along the horizontal transport path at a second pitch which is greater than the first pitch, and the transport is controlled such that each workpiece (W) of the plurality of workpieces (W) is stopped at respective first and second locations within the printing machine, the first and second locations being spaced along the horizontal transport path and each being located directly above the rising table when in its retracted position, with at least one of the first and second locations being directly located above a support surface of the tooling . a rising table being vertically movable between a lower, retracted position and an upper, extended position, and tooling fitted to the rising table to be carried therewith, the tooling comprising a plurality of discrete and horizontally spaced support surfaces , the arrangement being such that in use workpieces (W) are conveyed into and through the printing machine along the horizontal transport path, which is vertically above the tooling when the rising table is in the retracted position, and a support surface may be brought into engagement with a workpiece (W) by raising the rising table toward the extended position, to enable a printing operation to be performed to print the engaged workpiece (W), the method comprising transporting a plurality of workpieces (W) to be printed into the printing machine along the horizontal transport path, wherein the plurality of support surfaces are spaced along the horizontal transport path at a second pitch which is greater than the first pitch, and the transport is controlled such that each workpiece (W) of the plurality of workpieces (W) is stopped at respective first and second locations within the printing machine, the first and second locations being spaced along the horizontal transport path and each being located directly above the rising table when in its retracted position, with at least one of the first and second locations being directly located above a support surface of the tooling .
A control system for an autonomous vehicle , the control system comprising: a self-driving system; and one or more computing devices in communication with the self-driving system, the one or more computing devices being configured to: detect , using a detection system, a rail agent in a vicinity of the autonomous vehicle; and determine one or more tracks on which the detected rail agent is possibly traveling, characterized in that the one or more computing devices are configured to: predict possible paths for the rail agent based on the determined one or more tracks; determine one or more motion plans for one or more probable paths from the possible paths; determine a likelihood for each of the one or more probable paths based on each motion plan; and determine a path for the autonomous vehicle based on a most probable path associated with a highest likelihood for the rail agent. a self-driving system; and one or more computing devices in communication with the self-driving system, the one or more computing devices being configured to: detect , using a detection system, a rail agent in a vicinity of the autonomous vehicle; and determine one or more tracks on which the detected rail agent is possibly traveling, detect , using a detection system, a rail agent in a vicinity of the autonomous vehicle; and determine one or more tracks on which the detected rail agent is possibly traveling, predict possible paths for the rail agent based on the determined one or more tracks; determine one or more motion plans for one or more probable paths from the possible paths; determine a likelihood for each of the one or more probable paths based on each motion plan; and determine a path for the autonomous vehicle based on a most probable path associated with a highest likelihood for the rail agent.
A system comprising: a pixel including a diffusion layer in contact with an absorption layer , wherein the diffusion layer and absorption layer are in contact with one another along an interface that is inside of a mesa ; a trench defined in the light sensitive absorption layer surrounding the mesa ; and an overflow contact seated in the trench ; and characterised in that the trench has a base between sidewalls of the trench, wherein the overflow contact is seated on the base , and wherein there is lateral clearance on the base between the overflow contact and each of the sidewalls ; the overflow contact seats against a transparent conductive oxide (TCO) that in turn contacts the absorption layer ; and the TCO is formed in a gap within a SiNx layer within the trench . a pixel including a diffusion layer in contact with an absorption layer , wherein the diffusion layer and absorption layer are in contact with one another along an interface that is inside of a mesa ; a trench defined in the light sensitive absorption layer surrounding the mesa ; and an overflow contact seated in the trench ; and characterised in that the trench has a base between sidewalls of the trench, wherein the overflow contact is seated on the base , and wherein there is lateral clearance on the base between the overflow contact and each of the sidewalls ; the overflow contact seats against a transparent conductive oxide (TCO) that in turn contacts the absorption layer ; and the TCO is formed in a gap within a SiNx layer within the trench .
An actuator comprising a screw shaft and a nut assembly , wherein the nut assembly comprises a primary nut for transmitting load through the actuator along a primary load path, and a secondary nut for transmitting load through the actuator along a secondary load path, wherein the secondary nut comprises first and second portions movable relative to one another, wherein as load is transmitted through the actuator along the primary load path the secondary nut does not transmit load through the actuator and upon failure of the primary load path the first and second portions move relative to each other, such relative movement causing the first and second portions to engage the screw shaft and enable transmittal of load through the secondary nut of the actuator along the secondary load path, characterised in that the actuator further comprises one or more movable abutments configured to engage one or other, or both of the first and second portions after said relative movement of the first and second portions to engage the screw shaft , such that upon such engagement the movable abutments are configured to prevent further relative movement of the first and second portions . wherein the nut assembly comprises a primary nut for transmitting load through the actuator along a primary load path, and a secondary nut for transmitting load through the actuator along a secondary load path, wherein the secondary nut comprises first and second portions movable relative to one another, wherein as load is transmitted through the actuator along the primary load path the secondary nut does not transmit load through the actuator and upon failure of the primary load path the first and second portions move relative to each other, such relative movement causing the first and second portions to engage the screw shaft and enable transmittal of load through the secondary nut of the actuator along the secondary load path, characterised in that the actuator further comprises one or more movable abutments configured to engage one or other, or both of the first and second portions after said relative movement of the first and second portions to engage the screw shaft , such that upon such engagement the movable abutments are configured to prevent further relative movement of the first and second portions .
Method for producing a process image (PA) of a technical system, in particular of a railway track system , wherein with the method image objects (B1 - B5) are displayed on a display device , said image objects each visualising a component or a section of the technical system and its respective state, characterised in that a computing device provides at least one of the image objects (B1 - B5) with a two-dimensional code symbol , which uniquely identifies the component shown by the image object (B1 - B5) or the section within the technical system shown by the image object (B1 - B5) and displays the state of the components shown or the section shown, by - the image object (B1 - B5) being formed by pixels with in each case a predetermined colour and brightness, by the pixels of the image object (B1 - B5) being defined in terms of colour and/or brightness in each case with a predetermined number of bits, and - the code symbol being integrated into the image object (B1 - B5), by pixels of the image object (B1 - B5) being modified with respect to colour and/or brightness, by a predetermined number of bits being changed for each pixel of the code symbol , in each case based on the original pixel parameters of the image object (B1 - B5). - the image object (B1 - B5) being formed by pixels with in each case a predetermined colour and brightness, by the pixels of the image object (B1 - B5) being defined in terms of colour and/or brightness in each case with a predetermined number of bits, and - the code symbol being integrated into the image object (B1 - B5), by pixels of the image object (B1 - B5) being modified with respect to colour and/or brightness, by a predetermined number of bits being changed for each pixel of the code symbol , in each case based on the original pixel parameters of the image object (B1 - B5).