mhurhangee/patent-ind-claim-en huggingface dataset:
A method of retrieving data in a mobile phone, the method comprising: in response to receiving (S510) a message from another mobile phone or a service provider, transmitting (S514) data stored within the mobile phone to the other mobile phone or the service provider from which the mobile phone received the message; deleting (S516) the data stored in the mobile phone if transmission of the data to the other mobile phone or the service provider is completed; further characterized by : enabling a mechanical latch preventing removal of a Subscriber Identity Module, SIM, card from the mobile phone; and permanently powering down the mobile phone if an attempt to break the mechanical latch is detected while the mechanical latch is enabled. in response to receiving (S510) a message from another mobile phone or a service provider, transmitting (S514) data stored within the mobile phone to the other mobile phone or the service provider from which the mobile phone received the message; deleting (S516) the data stored in the mobile phone if transmission of the data to the other mobile phone or the service provider is completed; further characterized by : enabling a mechanical latch preventing removal of a Subscriber Identity Module, SIM, card from the mobile phone; and permanently powering down the mobile phone if an attempt to break the mechanical latch is detected while the mechanical latch is enabled. enabling a mechanical latch preventing removal of a Subscriber Identity Module, SIM, card from the mobile phone; and permanently powering down the mobile phone if an attempt to break the mechanical latch is detected while the mechanical latch is enabled.
An information processing device comprising: a processor ; and a memory , wherein the memory is configured to store (i) a captured image outputted from a camera included in an unmanned aircraft and (ii) a sound outputted from a directional microphone included in the unmanned aircraft , and store (i) a position and an orientation of the camera and (ii) a position and an orientation of the directional microphone , and the processor is configured to obtain, from the memory , the captured image, the sound, the position and the orientation of the camera , and the position and the orientation of the directional microphone , calculate a sound pickup direction of the directional microphone using the position and the orientation of the camera and the position and the orientation of the directional microphone , superimpose an object indicating the sound pickup direction at a position, on the captured image, corresponding to the sound pickup direction calculated, and cause a display device to display the captured image on which the object is superimposed, characterized in that the processor is configured to further obtain a setting distance corresponding to the quality of sound pickup of the directional microphone , and control a presentation manner of the object indicating the sound pickup direction in accordance with a difference between a measured distance obtained and the setting distance obtained, the measured distance obtained being a distance measured to a subject captured in the captured image. a processor ; and a memory , wherein the memory is configured to store (i) a captured image outputted from a camera included in an unmanned aircraft and (ii) a sound outputted from a directional microphone included in the unmanned aircraft , and store (i) a position and an orientation of the camera and (ii) a position and an orientation of the directional microphone , and the processor is configured to obtain, from the memory , the captured image, the sound, the position and the orientation of the camera , and the position and the orientation of the directional microphone , calculate a sound pickup direction of the directional microphone using the position and the orientation of the camera and the position and the orientation of the directional microphone , superimpose an object indicating the sound pickup direction at a position, on the captured image, corresponding to the sound pickup direction calculated, and cause a display device to display the captured image on which the object is superimposed, characterized in that the processor is configured to further obtain a setting distance corresponding to the quality of sound pickup of the directional microphone , and control a presentation manner of the object indicating the sound pickup direction in accordance with a difference between a measured distance obtained and the setting distance obtained, the measured distance obtained being a distance measured to a subject captured in the captured image.
A computer comprising: a processor configured to execute instructions; instructions that, when executed by the processor, direct the computer to perform operations within a browser operating in conjunction with an extension to render a customised version of a restricted document object model, the operations comprising: (a) identifying in a source document object model a restricted element to be rendered; (b) accessing at least one rule associated with the restricted element; (c) applying said at least one rule to the restricted element to modify the restricted element and generate a modified document object model; and (d) rendering by the browser said modified document object model; wherein the modified document object model is rendered without previously having rendered the source document object model such that the source document object model is not rendered. a processor configured to execute instructions; instructions that, when executed by the processor, direct the computer to perform operations within a browser operating in conjunction with an extension to render a customised version of a restricted document object model, the operations comprising: (a) identifying in a source document object model a restricted element to be rendered; (b) accessing at least one rule associated with the restricted element; (c) applying said at least one rule to the restricted element to modify the restricted element and generate a modified document object model; and (d) rendering by the browser said modified document object model; (a) identifying in a source document object model a restricted element to be rendered; (b) accessing at least one rule associated with the restricted element; (c) applying said at least one rule to the restricted element to modify the restricted element and generate a modified document object model; and (d) rendering by the browser said modified document object model; wherein the modified document object model is rendered without previously having rendered the source document object model such that the source document object model is not rendered.
A stabilized flow nozzle for the atomization of a liquid, comprising: - a substantially cylindrical metallic main body defining a first longitudinal axis ( X ) with an inlet for the liquid to be atomized, at least one calibrated outlet hole for the atomized liquid lying on or in the vicinity of said first axis ( X ) and a working chamber extending between said inlet and said at least one calibrated outlet hole , said working chamber including a first converging portion , a second diverging portion and an orifice interposed therebetween, said second diverging portion being located downstream of said first converging portion and upstream of said at least one calibrated outlet hole ; wherein said metallic main body includes shutter means acting against said orifice to increase the pressure of the liquid which outlets from said first converging portion and to prevent reflux of the liquid which inlets said second diverging portion ; wherein the nozzle further comprises a flow stabilizer element to stabilize the flow which outlets from said main body consisting of an annular body coaxially coupled with the latter in the vicinity of said at least one calibrated outlet hole , said annular body including a rear face facing said inlet , a front face opposite thereto and a plurality of passing-through holes ( 44', 44", 44"' ) each having a respective second longitudinal axis ( Y', Y", Y'" ) inclined toward said first axis ( X ) so that the atomized liquid which outlets from said at least one calibrated hole sucks air by Venturi effect from said rear face to said front face via said passing-through holes ( 44 ', 44 ", 44 "'), thus stabilizing it; characterized in that said shutter means include an elastomeric sealing element and elastic counteracting means acting thereon to force it against said orifice . - a substantially cylindrical metallic main body defining a first longitudinal axis ( X ) with an inlet for the liquid to be atomized, at least one calibrated outlet hole for the atomized liquid lying on or in the vicinity of said first axis ( X ) and a working chamber extending between said inlet and said at least one calibrated outlet hole , said working chamber including a first converging portion , a second diverging portion and an orifice interposed therebetween, said second diverging portion being located downstream of said first converging portion and upstream of said at least one calibrated outlet hole ;
A method for operating an agricultural machine having a tractor . an implement trailed or carried by the tractor , an user terminal provided on the tractor , and a machine control system connected to the user terminal , the method comprising, in a first operation: - receiving a first user input through the user terminal , the first user input indicating a first operation task to be executed by a functional implement element (12.1, 12.2) provided on the implement ; and - receiving the first user input in the tractor control unit ; characterized by - in response to the first user input, generating first driving signals by the tractor control unit , the first driving signals configured to drive operation of the functional implement element (12.1, 12.2) for executing the first operation task; - transmitting, through a data communication assembly , the first driving signals from the tractor control unit to a local driver unit (10.1, 10.2) provided on the implement and assigned to the functional implement element (12.1, 12.2); and - in response to receiving the first driving signals, driving the functional implement element (12.1, 12.2) by the local driver unit (10.1, 10.2), and, the functional implement element (12.1, 12.2) executing the first operation task. - receiving a first user input through the user terminal , the first user input indicating a first operation task to be executed by a functional implement element (12.1, 12.2) provided on the implement ; and - receiving the first user input in the tractor control unit ; - in response to the first user input, generating first driving signals by the tractor control unit , the first driving signals configured to drive operation of the functional implement element (12.1, 12.2) for executing the first operation task; - transmitting, through a data communication assembly , the first driving signals from the tractor control unit to a local driver unit (10.1, 10.2) provided on the implement and assigned to the functional implement element (12.1, 12.2); and - in response to receiving the first driving signals, driving the functional implement element (12.1, 12.2) by the local driver unit (10.1, 10.2), and, the functional implement element (12.1, 12.2) executing the first operation task.
A method for arranging a broadcast message in an Android operating system, the method comprising: monitoring whether the broadcast message is sent from a broadcast sender; determining a broadcast receiver of the broadcast message when the broadcast message is sent from the broadcast sender, wherein the broadcast sender and the broadcast receiver are the operating system or an application, and the broadcast message sent from the broadcast sender is monitored through ActivityManagerService broadcast manager; determining a priority of the broadcast message according to the broadcast receiver; determining an insertion location of the broadcast message in a broadcast message queue according to the priority of the broadcast message; and inserting the broadcast message into the broadcast message queue according to the insertion location; wherein the determining a priority of the broadcast message according to the broadcast receiver comprises: counting a use frequency of the broadcast receiver in a preset period; and determining the priority of the broadcast message according to the use frequency. monitoring whether the broadcast message is sent from a broadcast sender; determining a broadcast receiver of the broadcast message when the broadcast message is sent from the broadcast sender, wherein the broadcast sender and the broadcast receiver are the operating system or an application, and the broadcast message sent from the broadcast sender is monitored through ActivityManagerService broadcast manager; determining a priority of the broadcast message according to the broadcast receiver; determining an insertion location of the broadcast message in a broadcast message queue according to the priority of the broadcast message; and inserting the broadcast message into the broadcast message queue according to the insertion location; wherein the determining a priority of the broadcast message according to the broadcast receiver comprises: counting a use frequency of the broadcast receiver in a preset period; and determining the priority of the broadcast message according to the use frequency. counting a use frequency of the broadcast receiver in a preset period; and determining the priority of the broadcast message according to the use frequency.
A system for providing multivariate climate change forecasting comprising: one or more processors and memory, and machine-readable instructions stored in the memory that, upon execution by the one or more processors cause the system to carry out operations comprising: obtaining, from one or more climate model datasets, climate model data comprising simulated historical climate model data used in one or more climate models and simulated future climate model data from the one or more climate models; obtaining, from one or more climate observational datasets, observational data comprising historical observed climate data; providing a statistical distribution of extremes or climate indices for one or more variable climate features using the climate model data and the observational model data; determining one or more metrics from the variable climate features, each of the metrics comprising: a prediction of a future climate variable for a determined future time period, a confidence bound of the prediction of the future climate variable for the determined future time period, and a prediction bound for the future climate variable for the determined future time period; and outputting the one or more metrics to an output device. obtaining, from one or more climate model datasets, climate model data comprising simulated historical climate model data used in one or more climate models and simulated future climate model data from the one or more climate models; obtaining, from one or more climate observational datasets, observational data comprising historical observed climate data; providing a statistical distribution of extremes or climate indices for one or more variable climate features using the climate model data and the observational model data; determining one or more metrics from the variable climate features, each of the metrics comprising: a prediction of a future climate variable for a determined future time period, a confidence bound of the prediction of the future climate variable for the determined future time period, and a prediction bound for the future climate variable for the determined future time period; and a prediction of a future climate variable for a determined future time period, a confidence bound of the prediction of the future climate variable for the determined future time period, and a prediction bound for the future climate variable for the determined future time period; and outputting the one or more metrics to an output device.
A system (10, 10', 10", 70, 70', 70") for metal laser jetting comprising: a supply of metal micro wire arranged so as to be fed towards a nozzle area by a translator , the metal micro wire being supported along its length in a through hole of a glass substrate and the nozzle area being located at an exit of the through hole, wherein the translator is configured to position an end portion of the metal micro wire near the nozzle area; and a laser positioned to emit, under control of a controller , light pulses towards the nozzle area thereby causing the end portion of the metal micro wire near the nozzle area to be heated and wherein the controller is configured to cause the laser to briefly increase the energy of the light pulses from the laser during a time the light pulses are incident on the nozzle area to promote expulsion of metal droplets . a supply of metal micro wire arranged so as to be fed towards a nozzle area by a translator , the metal micro wire being supported along its length in a through hole of a glass substrate and the nozzle area being located at an exit of the through hole, wherein the translator is configured to position an end portion of the metal micro wire near the nozzle area; and a laser positioned to emit, under control of a controller , light pulses towards the nozzle area thereby causing the end portion of the metal micro wire near the nozzle area to be heated and wherein the controller is configured to cause the laser to briefly increase the energy of the light pulses from the laser during a time the light pulses are incident on the nozzle area to promote expulsion of metal droplets .
A device for detecting a hazardous condition in an area, comprising: a housing including a base mountable to a building structure and a replaceable portion connected to the base, wherein the base includes a pocket and a movable flap located at an exterior side of the base for providing access to the pocket; a controller contained within an interior of the housing; and a carbon monoxide device for detecting carbon monoxide, the carbon monoxide device being positioned within the pocket such that a sensing portion of the carbon monoxide device is in fluid communication with an environment external to the housing, the carbon monoxide device being operably coupled to the controller. a housing including a base mountable to a building structure and a replaceable portion connected to the base, wherein the base includes a pocket and a movable flap located at an exterior side of the base for providing access to the pocket; a controller contained within an interior of the housing; and a carbon monoxide device for detecting carbon monoxide, the carbon monoxide device being positioned within the pocket such that a sensing portion of the carbon monoxide device is in fluid communication with an environment external to the housing, the carbon monoxide device being operably coupled to the controller.
Method for tracking a sorting of a mailing item into a sorting register , comprising the following method steps: a) providing the sorting register with a number of sorting compartments (F ij ); b) assigning determination information, in particular mailing addresses, to the sorting compartments (F ij ); c) acquiring an image of the mailing item and extracting the determination information of the mailing item from the image and indicating the sorting compartment (F 23 ) assigned to this destination information, d) equipping a sorting arm with a position transponder for detecting a position of the sorting register-side end of the sorting arm in relation to the sorting register ; e) directing the mailing item to the indicated sorting compartment (F 23 ) by means of the sorting arm ; f) recording the position of the position transponder during the directing of the mailing item in the direction of the indicated sorting compartment (F 23 ); g) determining the closest position of the position transponder in relation to the sorting register ; h) assigning this closest position to a sorting compartment (F 23 ) of the sorting register ; and i) storing a sorting data record, comprising the assigned sorting compartment (F 23 ) and the image and, where required, the extracted destination information of the mailing item . a) providing the sorting register with a number of sorting compartments (F ij ); b) assigning determination information, in particular mailing addresses, to the sorting compartments (F ij ); c) acquiring an image of the mailing item and extracting the determination information of the mailing item from the image and indicating the sorting compartment (F 23 ) assigned to this destination information, d) equipping a sorting arm with a position transponder for detecting a position of the sorting register-side end of the sorting arm in relation to the sorting register ; e) directing the mailing item to the indicated sorting compartment (F 23 ) by means of the sorting arm ; f) recording the position of the position transponder during the directing of the mailing item in the direction of the indicated sorting compartment (F 23 ); g) determining the closest position of the position transponder in relation to the sorting register ; h) assigning this closest position to a sorting compartment (F 23 ) of the sorting register ; and i) storing a sorting data record, comprising the assigned sorting compartment (F 23 ) and the image and, where required, the extracted destination information of the mailing item .
A robotic surgery system for preparing a bone (H) of a shoulder joint to receive a shoulder implant , the shoulder implant having a proximal body , a distal body , and a locking member , the robotic surgery system comprising: a robotic manipulator ; a cutting tool to be coupled to said robotic manipulator ; a localizer configured to track movement of said cutting tool and the bone (H); and a controller coupled to said robotic manipulator and said localizer , said controller configured to operate said robotic manipulator to control movement of said cutting tool relative to the bone (H) based on one or more virtual objects (V1, V2) associated with the shoulder implant , characterized in that said one or more virtual objects (V1, V2) define a volume of material to be removed from the bone (H) to form a first cavity sized to receive the distal body of the shoulder implant and to form a second cavity sized to receive the locking member , the second cavity formed to define an undercut in the bone (H), whereby the locking member is movable from an unlocked position in the first cavity to a locked position in the second cavity to limit withdrawal of the shoulder implant from the bone (H). a robotic manipulator ; a cutting tool to be coupled to said robotic manipulator ; a localizer configured to track movement of said cutting tool and the bone (H); and a controller coupled to said robotic manipulator and said localizer , said controller configured to operate said robotic manipulator to control movement of said cutting tool relative to the bone (H) based on one or more virtual objects (V1, V2) associated with the shoulder implant , characterized in that said one or more virtual objects (V1, V2) define a volume of material to be removed from the bone (H) to form a first cavity sized to receive the distal body of the shoulder implant and to form a second cavity sized to receive the locking member , the second cavity formed to define an undercut in the bone (H), whereby the locking member is movable from an unlocked position in the first cavity to a locked position in the second cavity to limit withdrawal of the shoulder implant from the bone (H).