mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: a building information model of a security system providing a three-dimensional view of a secured area of the security system including the physical location of any sensors (12, 14) of the security system; if a sensor (12, 14) is activated, saving an entry into an event file wherein the entry includes an identifier of the activated sensor and the time of the activation; an input device of the security system receiving from a user a starting time and ending time of a time interval of interest; and a processor (20, 22) and a display of the security system displaying the three-dimensional view of the secured area including a time scale showing the starting time input by the user on one end of the time scale and the ending time input by the user at an opposing end of the time scale and a respective popup (114, 116) of details for each sensor (12, 14) of the security system activated during the time interval of interest, each respective popup being graphically connected to the physical location of the corresponding sensor within the three dimensional view, wherein, upon a user activating the time scale, the processor (20, 22) and display of the security system play back activations of sensors (12, 14) as they occurred, including display of the respective popup (114, 116), in accordance with a time indicator shown on the display incrementing along at least a portion of the time interval between the starting time and the ending time. a building information model of a security system providing a three-dimensional view of a secured area of the security system including the physical location of any sensors (12, 14) of the security system; if a sensor (12, 14) is activated, saving an entry into an event file wherein the entry includes an identifier of the activated sensor and the time of the activation; an input device of the security system receiving from a user a starting time and ending time of a time interval of interest; and a processor (20, 22) and a display of the security system displaying the three-dimensional view of the secured area including a time scale showing the starting time input by the user on one end of the time scale and the ending time input by the user at an opposing end of the time scale and a respective popup (114, 116) of details for each sensor (12, 14) of the security system activated during the time interval of interest, each respective popup being graphically connected to the physical location of the corresponding sensor within the three dimensional view, wherein, upon a user activating the time scale, the processor (20, 22) and display of the security system play back activations of sensors (12, 14) as they occurred, including display of the respective popup (114, 116), in accordance with a time indicator shown on the display incrementing along at least a portion of the time interval between the starting time and the ending time.
A glass article comprising: a glass core layer disposed between a first glass cladding layer and a second glass cladding layer, wherein the first glass cladding layer and the second glass cladding layer are formed from a glass composition which comprises: from 60 mol.% to 66 mol.% SiO 2; from 7 mol.% to 10 mol.% Al 2 O 3; from 14 mol.% to 18 mol.% B 2 O 3; and from 9 mol.% to 16 mol.% alkaline earth oxide, wherein the alkaline earth oxide comprises at least CaO and the CaO is present in the glass composition in a concentration from 3 mol.% to 12 mol.%; and wherein the glass composition is substantially free from alkali metals and compounds containing alkali metals. from 60 mol.% to 66 mol.% SiO 2; from 7 mol.% to 10 mol.% Al 2 O 3; from 14 mol.% to 18 mol.% B 2 O 3; and
A method, comprising: performing, by one or more computing devices: obtaining a first indication of a destination of a vehicle; generating a list of finer-granularity destinations located within a vicinity of the destination based at least in part on analysis of a history of stopping points in the vicinity of the destination, wherein the finer-granularity destinations comprise specific locations within the vicinity of the destination corresponding to respective stopping points; receiving user input indicating a selected finer-granularity destination among the finer-granularity destinations; identifying, based at least in part on (a) the selected finer-granularity destination and (b) information indicating an external environment of the vehicle, one or more movements to be implemented to proceed to a stopping point within the vicinity of the selected finer-granularity destination; and transmitting a first directive to one or more motion control subsystems to initiate at least a first movement of the one or more movements. obtaining a first indication of a destination of a vehicle; generating a list of finer-granularity destinations located within a vicinity of the destination based at least in part on analysis of a history of stopping points in the vicinity of the destination, wherein the finer-granularity destinations comprise specific locations within the vicinity of the destination corresponding to respective stopping points; receiving user input indicating a selected finer-granularity destination among the finer-granularity destinations; identifying, based at least in part on (a) the selected finer-granularity destination and (b) information indicating an external environment of the vehicle, one or more movements to be implemented to proceed to a stopping point within the vicinity of the selected finer-granularity destination; and transmitting a first directive to one or more motion control subsystems to initiate at least a first movement of the one or more movements.
A device used to handle articles to be packaged, the device comprising - at least one work module, which can move packages of a first packaging type with articles placed thereonto, and which work module has at least one folding mechanism used to erect back and/or front flaps, which are formed by the packages of the first packaging type, as well as comprising - at least one transport module, which comprises a transport means, along which articles intended for packages of a second packaging type are movable, which second packaging type differs from the first packaging type, wherein it is provided that - the at least one folding mechanism of the at least one work module and the transport means of the at least one transport module are movable back and forth, alternating between a particular operating position and a particular waiting position, such that either the at least one folding mechanism of the at least one work module or the transport means of the at least one transport module is situated in its particular operating position, the device being characterised in that - the operating positions and the waiting positions are configured in such a manner that the at least one folding mechanism of the at least one work module is disposed exclusively adjacent to the right side or to the left side of the transport means of the at least one transport module. - at least one work module, which can move packages of a first packaging type with articles placed thereonto, and which work module has at least one folding mechanism used to erect back and/or front flaps, which are formed by the packages of the first packaging type, as well as comprising - at least one transport module, which comprises a transport means, along which articles intended for packages of a second packaging type are movable, which second packaging type differs from the first packaging type, wherein it is provided that - the at least one folding mechanism of the at least one work module and the transport means of the at least one transport module are movable back and forth, alternating between a particular operating position and a particular waiting position, such that either the at least one folding mechanism of the at least one work module or the transport means of the at least one transport module is situated in its particular operating position, the device being characterised in that - the operating positions and the waiting positions are configured in such a manner that the at least one folding mechanism of the at least one work module is disposed exclusively adjacent to the right side or to the left side of the transport means of the at least one transport module.
A method for training an eye tracking model, wherein the eye tracking model is adapted to estimate eye tracking data based on sensor data from a first eye tracking sensor of a new eye tracking system, wherein the first eye tracking sensor is arranged to monitor an eye, the method comprising: receiving sensor data, wherein the sensor data is obtained by the first eye tracking sensor at a time instance; characterized by: receiving reference eye tracking data for said time instance generated by an old eye tracking system comprising a second eye tracking sensor, arranged to monitor the eye, wherein the reference eye tracking data is generated by the old eye tracking system based on sensor data obtained by the second eye tracking sensor at said time instance; and training the eye tracking model based on the sensor data obtained by the first eye tracking sensor at said time instance and the generated reference eye tracking data for said time instance. receiving sensor data, wherein the sensor data is obtained by the first eye tracking sensor at a time instance; characterized by: receiving reference eye tracking data for said time instance generated by an old eye tracking system comprising a second eye tracking sensor, arranged to monitor the eye, wherein the reference eye tracking data is generated by the old eye tracking system based on sensor data obtained by the second eye tracking sensor at said time instance; and training the eye tracking model based on the sensor data obtained by the first eye tracking sensor at said time instance and the generated reference eye tracking data for said time instance. receiving reference eye tracking data for said time instance generated by an old eye tracking system comprising a second eye tracking sensor, arranged to monitor the eye, wherein the reference eye tracking data is generated by the old eye tracking system based on sensor data obtained by the second eye tracking sensor at said time instance; and training the eye tracking model based on the sensor data obtained by the first eye tracking sensor at said time instance and the generated reference eye tracking data for said time instance.
A tire buffing machine, comprising: a tire hub assembly configured to selectively rotate a tire casing mounted thereon; a buffer configured to buff the tire casing mounted on the tire hub assembly; a belt detection apparatus (106, 200) having two or more sensors (232, 242) configured to detect a first belt depth of one or more belts at a first lateral position within a tire casing and a second belt depth of the one or more belts at a second lateral position within the tire casing, wherein the two or more sensors (232, 242) are slidable along a slide; and an electronic controller communicatively coupled to the buffer and the belt detection apparatus (106, 200), the electronic controller being programmed to: determine the first belt depth and the second belt depth based on the two or more sensors (232, 242) of the belt detection apparatus (106, 200); and adjust the operation of the buffer based on the first belt depth or the second belt depth. a tire hub assembly configured to selectively rotate a tire casing mounted thereon; a buffer configured to buff the tire casing mounted on the tire hub assembly; a belt detection apparatus (106, 200) having two or more sensors (232, 242) configured to detect a first belt depth of one or more belts at a first lateral position within a tire casing and a second belt depth of the one or more belts at a second lateral position within the tire casing, wherein the two or more sensors (232, 242) are slidable along a slide; and an electronic controller communicatively coupled to the buffer and the belt detection apparatus (106, 200), the electronic controller being programmed to: determine the first belt depth and the second belt depth based on the two or more sensors (232, 242) of the belt detection apparatus (106, 200); and adjust the operation of the buffer based on the first belt depth or the second belt depth. determine the first belt depth and the second belt depth based on the two or more sensors (232, 242) of the belt detection apparatus (106, 200); and adjust the operation of the buffer based on the first belt depth or the second belt depth.
A method for data transmission, implemented by a data sender, the method comprising: determining a target sending position based on channel detection results of available sending positions within a set time window, characterized in that a length of the set time window is associated with a type of data to be transmitted, the data to be transmitted is signaling or a signal that is periodically sent, the length of the set time window does not exceed a transmission period of the data to be transmitted, and a length of a set time window for an important signal or signaling with a relatively high latency requirement is longer than a length of a set time window for other signals or signaling; and transmitting the data at the target sending position. determining a target sending position based on channel detection results of available sending positions within a set time window, characterized in that a length of the set time window is associated with a type of data to be transmitted, the data to be transmitted is signaling or a signal that is periodically sent, the length of the set time window does not exceed a transmission period of the data to be transmitted, and a length of a set time window for an important signal or signaling with a relatively high latency requirement is longer than a length of a set time window for other signals or signaling; and transmitting the data at the target sending position.
Air outlet device for supplying temperature-controlled air for an interior of a motor vehicle, comprising at least one electric servomotor and comprising a rotatably mounted rotation ring, the rotation ring having adjustable slats in an inner region of the rotation ring, characterized in that the air outlet device has a stationary slide guide into which a pin of the rotation ring engages, the pin being connected to the slats so that an adjustment of the slats is realized by a rotation of the rotation ring, the pin being coupled to a lever which is rotatably mounted in relation to the rotation ring, and the lever being designed to adjust the slats.
A flexible heat transfer material for thermally contacting at least one cell within a battery pack, the flexible heat transfer material being conformable to at least part of the surface shape of at least one cell, the flexible heat transfer material comprising a matrix and a filler, wherein the thermal conductivity of the filler is greater than the thermal conductivity of the matrix and wherein the flexible heat transfer material forms at least a part of an inflatable thermal management duct.
A system for non-destructively inspecting a part comprising: - a robotic arm defining a tool center point; - a controller configured to control movement of the tool center point; and - a non-destructive inspection apparatus coupled to the tool center point comprising: - an attachment body configured to attach to the robotic arm; - an ultrasonic probe assembly fixedly coupled to the attachment body such that movement of the TCP by the robotic arm results in a corresponding movement of the ultrasonic probe assembly; - a probe housing moveably disposed around the ultrasonic probe assembly and moveably coupled to the attachment body; and - a biasing member disposed between the attachment body and the probe housing, where the biasing member urges the probe housing away from the attachment body, whereby the probe housing includes a body having a part engagement surface that is configured to contact a surface of the part. - a robotic arm defining a tool center point; - a controller configured to control movement of the tool center point; and - a non-destructive inspection apparatus coupled to the tool center point comprising: - an attachment body configured to attach to the robotic arm; - an ultrasonic probe assembly fixedly coupled to the attachment body such that movement of the TCP by the robotic arm results in a corresponding movement of the ultrasonic probe assembly; - a probe housing moveably disposed around the ultrasonic probe assembly and moveably coupled to the attachment body; and - a biasing member disposed between the attachment body and the probe housing, where the biasing member urges the probe housing away from the attachment body, whereby the probe housing includes a body having a part engagement surface that is configured to contact a surface of the part. - an attachment body configured to attach to the robotic arm; - an ultrasonic probe assembly fixedly coupled to the attachment body such that movement of the TCP by the robotic arm results in a corresponding movement of the ultrasonic probe assembly; - a probe housing moveably disposed around the ultrasonic probe assembly and moveably coupled to the attachment body; and - a biasing member disposed between the attachment body and the probe housing, where the biasing member urges the probe housing away from the attachment body, whereby the probe housing includes a body having a part engagement surface that is configured to contact a surface of the part.
A meter unit, comprising at least one meter module (3.1) and a bus interface module, wherein the meter unit is implemented in hardware, and wherein the meter unit can be coupled to a bus system (6, 7) via the bus interface module; wherein - input data for the meter module (3.1) can be received from a bus system (6, 7) via the bus interface module; and - result data from the meter module (3.1) can be output onto the bus system (6, 7) via the bus interface module; characterized by - comprising an evaluation and assignment module which is connected to the bus interface module and to the meter module (3.1), wherein the evaluation and assignment module is adapted to mask, extract and evaluate input data for the meter module (3.1) from a data stream transferred on a bus system (6, 7), and to assign and forward them to the meter module (3.1). - input data for the meter module (3.1) can be received from a bus system (6, 7) via the bus interface module; and - result data from the meter module (3.1) can be output onto the bus system (6, 7) via the bus interface module; - comprising an evaluation and assignment module which is connected to the bus interface module and to the meter module (3.1), wherein the evaluation and assignment module is adapted to mask, extract and evaluate input data for the meter module (3.1) from a data stream transferred on a bus system (6, 7), and to assign and forward them to the meter module (3.1).
A modifier represented by Formula 1: wherein, in Formula 1, R 1, R 2, and R 5 are each independently a monovalent hydrocarbon group having 1 to 20 carbon atoms which is substituted or unsubstituted with at least one substituent selected from the group consisting of an alkyl group having 1 to 20 carbon atoms, a cycloalkyl group having 3 to 20 carbon atoms, and an aryl group having 6 to 30 carbon atoms, R 3 and R 4 are each independently a divalent hydrocarbon group having 1 to 20 carbon atoms which is substituted or unsubstituted with an alkyl group having 1 to 20 carbon atoms, and n is an integer of 1 to 3, and wherein the modifier does not include one represented by Formula 1-2: R 1, R 2, and R 5 are each independently a monovalent hydrocarbon group having 1 to 20 carbon atoms which is substituted or unsubstituted with at least one substituent selected from the group consisting of an alkyl group having 1 to 20 carbon atoms, a cycloalkyl group having 3 to 20 carbon atoms, and an aryl group having 6 to 30 carbon atoms, R 3 and R 4 are each independently a divalent hydrocarbon group having 1 to 20 carbon atoms which is substituted or unsubstituted with an alkyl group having 1 to 20 carbon atoms, and n is an integer of 1 to 3, and wherein the modifier does not include one represented by Formula 1-2:
A method implemented by user equipment (100, 205, 210) comprising: responsive to receiving information from a base station in a cellular system, generating feedback associated with the received information, comprising generating a sounding reference signal, SRS, as the feedback, wherein generating the SRS comprises: responsive to determining that the information is correctly received, generating the SRS with a first repetition factor, RPF, and responsive to determining that the information is incorrectly received, generating the SRS with a second RPF that is different from the first RPF; and multiplexing the feedback with a device-to-device, D2D, signal in a subframe for transmission. responsive to receiving information from a base station in a cellular system, generating feedback associated with the received information, comprising generating a sounding reference signal, SRS, as the feedback, wherein generating the SRS comprises: responsive to determining that the information is correctly received, generating the SRS with a first repetition factor, RPF, and responsive to determining that the information is incorrectly received, generating the SRS with a second RPF that is different from the first RPF; and responsive to determining that the information is correctly received, generating the SRS with a first repetition factor, RPF, and responsive to determining that the information is incorrectly received, generating the SRS with a second RPF that is different from the first RPF; and multiplexing the feedback with a device-to-device, D2D, signal in a subframe for transmission.
A controlling device for purifying exhaust gas of an engine which has a catalyst (6, 7) being interposed in an exhaust system of the engine and containing an oxygen occludable material, the controlling device characterized by: a fuel cutting controller configured to, if a predetermined condition for fuel cutting is satisfied, shut off supply of fuel to the engine after a predetermined delay time elapses; a calculator configured to calculate oxygen occludability of the catalyst (6, 7); and a setter configured to set a length of the delay time in accordance with the oxygen occludability calculated by the calculator. a fuel cutting controller configured to, if a predetermined condition for fuel cutting is satisfied, shut off supply of fuel to the engine after a predetermined delay time elapses; a calculator configured to calculate oxygen occludability of the catalyst (6, 7); and a setter configured to set a length of the delay time in accordance with the oxygen occludability calculated by the calculator.