mhurhangee/patent-ind-claim-en huggingface dataset:
An underwater mobile inspection apparatus capable of inspecting an inspection object on a seafloor while cruising, the underwater mobile inspection apparatus comprising: a cruising body configured to submerge under water and cruise along the inspection object in such a manner as not to come into contact with the inspection object ; a first movable arm provided on the cruising body ; an inspection tool unit for use in inspecting the inspection object , the inspection tool unit being provided on the first movable arm ; and a controller configured to, when the cruising body cruises along the inspection object in such a manner as not to come into contact with the inspection object , operate the first movable arm to move the inspection tool unit , such that a positional relationship of the inspection tool unit with the inspection object becomes a predetermined target positional relationship, wherein the controller: has a memory which stores a map showing an installation location of the inspection object ; and controls the cruising body based on installation location information indicated by the map and based on inspection object information, the installation location information specifying the installation location of the inspection object, such that the cruising body autonomously cruises along the inspection object in such a manner as not to come into contact with the inspection object . a cruising body configured to submerge under water and cruise along the inspection object in such a manner as not to come into contact with the inspection object ; a first movable arm provided on the cruising body ; an inspection tool unit for use in inspecting the inspection object , the inspection tool unit being provided on the first movable arm ; and a controller configured to, when the cruising body cruises along the inspection object in such a manner as not to come into contact with the inspection object , operate the first movable arm to move the inspection tool unit , such that a positional relationship of the inspection tool unit with the inspection object becomes a predetermined target positional relationship, wherein the controller: has a memory which stores a map showing an installation location of the inspection object ; and controls the cruising body based on installation location information indicated by the map and based on inspection object information, the installation location information specifying the installation location of the inspection object, such that the cruising body autonomously cruises along the inspection object in such a manner as not to come into contact with the inspection object . has a memory which stores a map showing an installation location of the inspection object ; and controls the cruising body based on installation location information indicated by the map and based on inspection object information, the installation location information specifying the installation location of the inspection object, such that the cruising body autonomously cruises along the inspection object in such a manner as not to come into contact with the inspection object .
An information processing apparatus comprising: first setting means for setting a destination for an issuance request for an electronic certificate; generating means for generating a setting screen, the setting screen being a screen for setting the destination to which the issuance request is to be transmitted, wherein the generating means generates Hypertext Markup Language, HTML, data of the setting screen to be displayed by another information processing apparatus; transmitting means for transmitting to the set destination the issuance request for an electronic certificate; receiving means for receiving, from the set destination to which the issuance request is transmitted, the electronic certificate that is issued on the basis of the issuance request transmitted to the set destination; storage means for storing the electronic certificate; second setting means for setting a function to an enabled state, the function being a function for transmitting the issuance request to the set destination at a timing set via said setting screen to be displayed by said another information processing apparatus; and control means for preventing the set destination from being changed in a case that the function is in the enabled state and allowing a change of the set destination in a case that the function is in a disabled state. first setting means for setting a destination for an issuance request for an electronic certificate; generating means for generating a setting screen, the setting screen being a screen for setting the destination to which the issuance request is to be transmitted, wherein the generating means generates Hypertext Markup Language, HTML, data of the setting screen to be displayed by another information processing apparatus; transmitting means for transmitting to the set destination the issuance request for an electronic certificate; receiving means for receiving, from the set destination to which the issuance request is transmitted, the electronic certificate that is issued on the basis of the issuance request transmitted to the set destination; storage means for storing the electronic certificate; second setting means for setting a function to an enabled state, the function being a function for transmitting the issuance request to the set destination at a timing set via said setting screen to be displayed by said another information processing apparatus; and control means for preventing the set destination from being changed in a case that the function is in the enabled state and allowing a change of the set destination in a case that the function is in a disabled state.
A computer-implemented method comprising: executing an initial login operation of the user in response to receiving user credentials; capturing , by a detection device coupled to a computer , characteristics of a target at the time of the initial login operation, wherein the characteristics of the target comprises a unique wireless signal; and associating the characteristics of the target with the user credentials only during this login session; wherein the detection by the detection device of the characteristics of the target causes a resetting of an inactivity timer; automatically executing , by the computer, a temporary logoff operation of a user at a conclusion of the inactivity timer; initiating , by the computer, an operation of a logoff timer in response to the execution of the temporary logoff operation; and automatically executing , by the computer, a login operation of the user when the characteristics are redetected by the detection device during the operation of the logoff timer, wherein the computer executes a full logout operation of the user at a conclusion of the logoff timer, wherein the detection device comprises a transceiver, the target comprises a wireless beacon on the user, and wherein the unique wireless signal is outputted by the wireless beacon and detectable by the transceiver. executing an initial login operation of the user in response to receiving user credentials; capturing , by a detection device coupled to a computer , characteristics of a target at the time of the initial login operation, wherein the characteristics of the target comprises a unique wireless signal; and associating the characteristics of the target with the user credentials only during this login session; wherein the detection by the detection device of the characteristics of the target causes a resetting of an inactivity timer; automatically executing , by the computer, a temporary logoff operation of a user at a conclusion of the inactivity timer; initiating , by the computer, an operation of a logoff timer in response to the execution of the temporary logoff operation; and automatically executing , by the computer, a login operation of the user when the characteristics are redetected by the detection device during the operation of the logoff timer, wherein the computer executes a full logout operation of the user at a conclusion of the logoff timer, wherein the detection device comprises a transceiver, the target comprises a wireless beacon on the user, and wherein the unique wireless signal is outputted by the wireless beacon and detectable by the transceiver.
An assembly comprising: an insert configured to mate with a wheel boss (71-74, 145) of a wheel ; and a rotor drive key configured to mate with the insert , wherein the insert is configured to mechanically connect the rotor drive key with the wheel boss (71-74, 145), and wherein the insert is between the rotor drive key and the wheel boss (71-74, 145) when the insert mechanically connects the rotor drive key with the wheel boss (71-74, 145), characterised in that the rotor drive key defines at least one of a recess configured to receive a protrusion defined by the insert or a protrusion configured to insert in a recess defined by the insert to mate with the insert , and wherein the rotor drive key is configured to be translated over the insert in a substantially axial direction of the wheel to mate with the insert . an insert configured to mate with a wheel boss (71-74, 145) of a wheel ; and a rotor drive key configured to mate with the insert , wherein the insert is configured to mechanically connect the rotor drive key with the wheel boss (71-74, 145), and wherein the insert is between the rotor drive key and the wheel boss (71-74, 145) when the insert mechanically connects the rotor drive key with the wheel boss (71-74, 145), characterised in that the rotor drive key defines at least one of a recess configured to receive a protrusion defined by the insert or a protrusion configured to insert in a recess defined by the insert to mate with the insert , and wherein the rotor drive key is configured to be translated over the insert in a substantially axial direction of the wheel to mate with the insert .
An imaging system mounted on a moving platform, comprising: a body ; a stage coupled to the body ; an actuator coupled to the body and the stage , wherein the actuator is configured to move the stage in a direction relative to the body, wherein the actuator is a piezoelectric actuator; a focal plane array that comprises one or more detectors and coupled to the stage; and a controller coupled to the actuator , wherein the controller is configured to determine a velocity of the body corresponding to motion of the moving platform, wherein the controller is configured to cause the actuator to backscan the stage from an initial position in the direction at a drive velocity proportional to the velocity of the body, wherein backscanning the stage comprises determining one or more gain coefficients and updating the drive velocity in response to the one or more gain coefficients, wherein updating the drive velocity in response to the one or more gain coefficients is performed such that hysteresis effects in the piezoelectric actuator are compensated to improve backscan slope linearity, and wherein the controller is communicatively coupled to the one or more detectors and causes the one or more detectors to capture image data during the backscan, and the controller is configured to reset the stage to the initial position. a body ; a stage coupled to the body ; an actuator coupled to the body and the stage , wherein the actuator is configured to move the stage in a direction relative to the body, wherein the actuator is a piezoelectric actuator; a focal plane array that comprises one or more detectors and coupled to the stage; and a controller coupled to the actuator , wherein the controller is configured to determine a velocity of the body corresponding to motion of the moving platform, wherein the controller is configured to cause the actuator to backscan the stage from an initial position in the direction at a drive velocity proportional to the velocity of the body, wherein backscanning the stage comprises determining one or more gain coefficients and updating the drive velocity in response to the one or more gain coefficients, wherein updating the drive velocity in response to the one or more gain coefficients is performed such that hysteresis effects in the piezoelectric actuator are compensated to improve backscan slope linearity, and wherein the controller is communicatively coupled to the one or more detectors and causes the one or more detectors to capture image data during the backscan, and the controller is configured to reset the stage to the initial position.
A self-test system comprising: a transmit circuit configured to generate an excitation pulse to cause a wireless sensor to emit a ring signal ; an antenna configured to transmit said excitation pulse and receive said ring signal ; a self-test device which emulates at least one electrical behavior of said wireless sensor in a known manner when placed in communication with a reader device ; wherein said system is configured to carry out a self-test such that said reader wirelessly communicates with said self-test device and obtains at least one response; and wherein said at least one response is compared to an expected response from said self-test device, in order to assess a functional performance of said reader. a transmit circuit configured to generate an excitation pulse to cause a wireless sensor to emit a ring signal ; an antenna configured to transmit said excitation pulse and receive said ring signal ; a self-test device which emulates at least one electrical behavior of said wireless sensor in a known manner when placed in communication with a reader device ; wherein said system is configured to carry out a self-test such that said reader wirelessly communicates with said self-test device and obtains at least one response; and wherein said at least one response is compared to an expected response from said self-test device, in order to assess a functional performance of said reader. wherein said system is configured to carry out a self-test such that said reader wirelessly communicates with said self-test device and obtains at least one response; and wherein said at least one response is compared to an expected response from said self-test device, in order to assess a functional performance of said reader.
An integrated deposition system for fabricating an electrochromic stack, the integrated deposition system comprising: a plurality of deposition stations aligned in series and interconnected and operable to pass a substrate from one station to the next without exposing the substrate to an external environment, wherein the plurality of deposition stations comprises: (i) a first deposition station containing a first one or more material sources for depositing a cathodically coloring layer; (ii) a second deposition station containing a second one or more material sources for depositing an anodically coloring layer comprising nickel-tungsten-tin-oxide (NiWSnO); and a controller comprising program instructions for passing the substrate through the plurality of deposition stations in a manner that deposits on the substrate (i) the cathodically coloring layer, and (ii) the anodically coloring layer in direct physical contact with each other. a plurality of deposition stations aligned in series and interconnected and operable to pass a substrate from one station to the next without exposing the substrate to an external environment, wherein the plurality of deposition stations comprises: (i) a first deposition station containing a first one or more material sources for depositing a cathodically coloring layer; (ii) a second deposition station containing a second one or more material sources for depositing an anodically coloring layer comprising nickel-tungsten-tin-oxide (NiWSnO); and (i) a first deposition station containing a first one or more material sources for depositing a cathodically coloring layer; (ii) a second deposition station containing a second one or more material sources for depositing an anodically coloring layer comprising nickel-tungsten-tin-oxide (NiWSnO); and a controller comprising program instructions for passing the substrate through the plurality of deposition stations in a manner that deposits on the substrate (i) the cathodically coloring layer, and (ii) the anodically coloring layer in direct physical contact with each other.
A mask configured to provide protection to a subject undergoing eyelash extension, comprising a gap configured to expose at least one eyelash of the subject without exposing a corresponding eye of the subject , wherein the mask is configured to follow a contour of a face of the subject , the mask is characterized in that it covers at least a portion of a corresponding upper eyelid and at least a portion of a corresponding lower eyelid of the subject .
An anchoring structure of a multiple-optical-axis photoelectric sensor for anchoring, to a support member , a columnar housing making up a body of each of a projector and an optical receiver of the multiple-optical-axis photoelectric sensor, the anchoring structure comprising: a fixture to be attached to the housing in a state supporting the rear face and one lateral face of the housing ; a first guide part provided along a lateral edge on a rear face side of the lateral face of the housing , the lateral face being supported by the fixture ; a second guide part provided along a lateral edge of the rear face of the housing closer to the lateral face having the first guide part ; and a holdback to be anchored to the support member , wherein an engagement part to be engaged with the first guide part is provided at a portion of the fixture supporting the one lateral face of the housing , at a portion of the fixture supporting the rear face of the housing , a protruding linear stage part is provided, the linear stage part extending along a longitudinal direction of the housing supported by this portion and abutting on the second guide part , and at positions opposed along the longitudinal direction of the housing with the portion supporting the rear face of the housing interposed, attachment pieces to be respectively engaged with the holdback are provided, and the engagement part is engaged with the first guide part of the housing , and the linear stage part is caused to abut on the second guide part of the housing , by which the fixture is slidably attached to the housing along the longitudinal direction. a fixture to be attached to the housing in a state supporting the rear face and one lateral face of the housing ; a first guide part provided along a lateral edge on a rear face side of the lateral face of the housing , the lateral face being supported by the fixture ; a second guide part provided along a lateral edge of the rear face of the housing closer to the lateral face having the first guide part ; and a holdback to be anchored to the support member , wherein an engagement part to be engaged with the first guide part is provided at a portion of the fixture supporting the one lateral face of the housing , at a portion of the fixture supporting the rear face of the housing , a protruding linear stage part is provided, the linear stage part extending along a longitudinal direction of the housing supported by this portion and abutting on the second guide part , and at positions opposed along the longitudinal direction of the housing with the portion supporting the rear face of the housing interposed, attachment pieces to be respectively engaged with the holdback are provided, and the engagement part is engaged with the first guide part of the housing , and the linear stage part is caused to abut on the second guide part of the housing , by which the fixture is slidably attached to the housing along the longitudinal direction.
An apparatus for producing an optical beam, comprising: a phased array on a chip comprising phase shifters, and off-chip couplers , to provide phase controlled pixels; at least one phase shifter and at least one directional coupler , to control a phase of all the pixels of the phased array in two orthogonal directions based on respective two parameters; and an optical system arranged in front of the phased array , the optical system comprising a beam expander to concentrate light from the phased array. a phased array on a chip comprising phase shifters, and off-chip couplers , to provide phase controlled pixels; at least one phase shifter and at least one directional coupler , to control a phase of all the pixels of the phased array in two orthogonal directions based on respective two parameters; and an optical system arranged in front of the phased array , the optical system comprising a beam expander to concentrate light from the phased array.
A printing system , comprising: a transport apparatus adapted to transport a flexible web of polymeric material along a process direction; first and second individually controllable ink jet imager units offset from one another along the process direction, wherein each of the first inkjet imager unit and the second ink jet imager unit includes a first portion operable to print on a first portion of the web of polymeric material and a second portion operable to print on the second portion of the web of polymeric material, wherein each of the first portion and second portion of the first and second ink jet imager units is stationary along the process direction and the lateral direction and wherein the first inkjet imager unit prints on the web of polymeric material at a first resolution and the second ink jet imager unit prints on the web of polymeric material at a second resolution; and a second closed-loop control system that controls registration between the first ink jet imager unit and the second ink jet imager unit ; characterized by the second resolution being different from the first resolution; and a first closed-loop control system that is configured to control web handling and a distance of at least one of the first portion and the second portion of at least one of the first ink jet imager unit and the second ink jet imager unit from the web of polymeric material. a transport apparatus adapted to transport a flexible web of polymeric material along a process direction; first and second individually controllable ink jet imager units offset from one another along the process direction, wherein each of the first inkjet imager unit and the second ink jet imager unit includes a first portion operable to print on a first portion of the web of polymeric material and a second portion operable to print on the second portion of the web of polymeric material, wherein each of the first portion and second portion of the first and second ink jet imager units is stationary along the process direction and the lateral direction and wherein the first inkjet imager unit prints on the web of polymeric material at a first resolution and the second ink jet imager unit prints on the web of polymeric material at a second resolution; and a second closed-loop control system that controls registration between the first ink jet imager unit and the second ink jet imager unit ; characterized by the second resolution being different from the first resolution; and a first closed-loop control system that is configured to control web handling and a distance of at least one of the first portion and the second portion of at least one of the first ink jet imager unit and the second ink jet imager unit from the web of polymeric material.