mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising, at a mobile device: monitoring one or more first processes hosted on a first processor (106-1) on said mobile device ; transitioning one or more second processes hosted on said first processor to a reduced power state, said one or more second processes utilizing location parameters ; initiating a communication on a bus connecting said first processor to a positioning engine external to said first processor to obtain at least one updated location parameter ; without activating said positioning engine, in response to detection of an operational mode transformation of at least one of said one or more first processes, said at least one updated location parameter having been previously determined by said positioning engine; receiving said at least one updated location parameter in response to said communication; and updating a locally stored positioning parameter based, at least in part, on said at least one updated location parameter while maintaining said one or more second processes in said reduced power state. monitoring one or more first processes hosted on a first processor (106-1) on said mobile device ; transitioning one or more second processes hosted on said first processor to a reduced power state, said one or more second processes utilizing location parameters ; initiating a communication on a bus connecting said first processor to a positioning engine external to said first processor to obtain at least one updated location parameter ; without activating said positioning engine, in response to detection of an operational mode transformation of at least one of said one or more first processes, said at least one updated location parameter having been previously determined by said positioning engine; receiving said at least one updated location parameter in response to said communication; and updating a locally stored positioning parameter based, at least in part, on said at least one updated location parameter while maintaining said one or more second processes in said reduced power state.
An integrated circuit IC chip comprising: a first pin for coupling to a first external capacitor; and a first timing circuit coupled to the first pin, the first timing circuit operable to selectively couple the first pin to one of a first source of constant current and a lower rail, the first timing circuit being coupled, responsive to a first event trigger, to perform the following: couple the first pin to the first source of constant current; monitor a first capacitor voltage on the first pin; if the magnitude of the first capacitor voltage is greater than a first rising threshold, enable detection of a first falling threshold; if the magnitude of the first capacitor voltage is greater than a first voltage threshold, trigger a first response and couple the first pin to the lower rail; and if detection of the first falling threshold is enabled and the magnitude of the first capacitor voltage is less than the first falling threshold, trigger the first response; and wherein the first rising threshold is greater than the first falling threshold, and less than the first voltage threshold. a first pin for coupling to a first external capacitor; and a first timing circuit coupled to the first pin, the first timing circuit operable to selectively couple the first pin to one of a first source of constant current and a lower rail, the first timing circuit being coupled, responsive to a first event trigger, to perform the following: couple the first pin to the first source of constant current; monitor a first capacitor voltage on the first pin; if the magnitude of the first capacitor voltage is greater than a first rising threshold, enable detection of a first falling threshold; if the magnitude of the first capacitor voltage is greater than a first voltage threshold, trigger a first response and couple the first pin to the lower rail; and if detection of the first falling threshold is enabled and the magnitude of the first capacitor voltage is less than the first falling threshold, trigger the first response; and couple the first pin to the first source of constant current; monitor a first capacitor voltage on the first pin; if the magnitude of the first capacitor voltage is greater than a first rising threshold, enable detection of a first falling threshold; if the magnitude of the first capacitor voltage is greater than a first voltage threshold, trigger a first response and couple the first pin to the lower rail; and if detection of the first falling threshold is enabled and the magnitude of the first capacitor voltage is less than the first falling threshold, trigger the first response; and
Method for production planning by means of a plurality of manufacturing devices (INTMA), in which tasks (TD) of a work plan (BOP) are subjected to a comparison (MA) with manufacturing capabilities (SD) of the manufacturing devices (INTMA) and in which the comparison (MA) is performed by means of a production control system (MES) and in which the comparison is effected semantically and/or by means of description logic and/or first-level predicate logic and/or multiattributive comparison and/or by means of constraint-based comparison, in particular by solving a constraint satisfaction problem, and in which the result/results (MAQ) of the comparison (MA) is/are respectively taken as a basis for instructing at least one or more manufacturing device/devices (INTMA) to match (NEG) its/their manufacturing capability/capabilities (SD) with the task/tasks (TD) if none of the manufacturing devices (INTMA) has at least one manufacturing capability (SD) for at least one task (TD) of the work plan and in which the matching involves a description of the task/tasks and/or a context description that may be present being transmitted to the respective manufacturing device and/or at least one internal simulation and/or at least one movement planning and/or at least one planning algorithm being used and in which a result of the matching (NEG) is transmitted to the production control system (MES).
An antenna array comprising: a substrate ; a plurality of antenna units , each of the plurality of antenna units comprising: an antenna element electrically coupled with a surface of the substrate ; and a ground element electrically coupled with the surface of the substrate , the ground element disposed at least in part between the antenna element and the surface of the substrate ; and a plurality of shielding elements disposed between the surface of the substrate and the ground elements of the plurality of antenna units , each of the plurality of shielding elements directly coupled with no more than one of the plurality of antenna units , wherein, for each of a plurality of gaps between ground elements of adjacent antenna units , a projected area of a respective gap in a direction perpendicular to the surface of the substrate is incident on at least one of the plurality of shielding elements . a substrate ; a plurality of antenna units , each of the plurality of antenna units comprising: an antenna element electrically coupled with a surface of the substrate ; and a ground element electrically coupled with the surface of the substrate , the ground element disposed at least in part between the antenna element and the surface of the substrate ; and an antenna element electrically coupled with a surface of the substrate ; and a ground element electrically coupled with the surface of the substrate , the ground element disposed at least in part between the antenna element and the surface of the substrate ; and a plurality of shielding elements disposed between the surface of the substrate and the ground elements of the plurality of antenna units , each of the plurality of shielding elements directly coupled with no more than one of the plurality of antenna units , wherein, for each of a plurality of gaps between ground elements of adjacent antenna units , a projected area of a respective gap in a direction perpendicular to the surface of the substrate is incident on at least one of the plurality of shielding elements .
An image capturing control apparatus comprising: image capturing control means configured to control image capturing by image capturing means based on setting values of a plurality of setting items; selection means configured to select a setting item from among the plurality of setting items; and changing means configured to change the setting value of the setting item selected by the selection means to a setting value that is selected in accordance with a dial rotating operation from among a plurality of setting values that correspond to the selected setting item, characterized in that the changing means is further configured to change the setting values of the plurality of setting items to AUTO values each of which is automatically determined in accordance with a photometric processing performed by the image capturing control means, in accordance with a key pressing operation, and the image capturing control apparatus further comprises: control means configured to perform control such that a change to the AUTO value in accordance with the dial rotating operation is enabled before the photometric processing is executed, and a change to the AUTO value in accordance with the dial rotating operation is disabled after the photometric processing has been executed. image capturing control means configured to control image capturing by image capturing means based on setting values of a plurality of setting items; selection means configured to select a setting item from among the plurality of setting items; and changing means configured to change the setting value of the setting item selected by the selection means to a setting value that is selected in accordance with a dial rotating operation from among a plurality of setting values that correspond to the selected setting item, characterized in that the changing means is further configured to change the setting values of the plurality of setting items to AUTO values each of which is automatically determined in accordance with a photometric processing performed by the image capturing control means, in accordance with a key pressing operation, and the image capturing control apparatus further comprises: control means configured to perform control such that a change to the AUTO value in accordance with the dial rotating operation is enabled before the photometric processing is executed, and a change to the AUTO value in accordance with the dial rotating operation is disabled after the photometric processing has been executed.
A terminal, comprising a terminal body , and two cameras , a flash , and a distance detection sensor that are disposed in the terminal body , wherein the terminal body comprises a first opening and a second opening on a rear side of the terminal body , disposed along a horizontal direction or along a vertical direction of the terminal body , wherein the two cameras and the distance detection sensor are disposed in the first opening , and the distance detection sensor is located in a gap between the two cameras ; wherein the two cameras are disposed at an interval along a direction in which a maximum size of the first opening is located; characterized in that the distance detection sensor is located on a line connecting centers of the two cameras , and the flash is disposed in the second opening . the terminal body comprises a first opening and a second opening on a rear side of the terminal body , disposed along a horizontal direction or along a vertical direction of the terminal body , wherein the two cameras and the distance detection sensor are disposed in the first opening , and the distance detection sensor is located in a gap between the two cameras ; wherein the two cameras are disposed at an interval along a direction in which a maximum size of the first opening is located; characterized in that the distance detection sensor is located on a line connecting centers of the two cameras , and the flash is disposed in the second opening .
Method for producing a pack where a film web is transported, in particular intermittently, along a transporting direction and hollows are formed in the film web in a forming station, said hollows being filled with pack contents and closed by a cover film and then being separated by a cross-cut using at least one cross-cutter , characterized in that a loading-relief aperture (24 - 26) and/or a stamped formation are/is provided in a residual strip in the region of the cross-cut and/or the temperature of the peripheral strip is increased.
Jig adapted to clamping samples disintegrating by pulsating water jet, wherein it is comprising a clamping plate with both transversely and longitudinally milled slots, on which are fixed clamping flanges by means of screws , wherein the clamping flanges together with the slots in the clamping plate form the T-slotted guide for the T-nut inserted in the T-slots for securing the clamp located on the top surface of the flange , wherein the clamp comprises a locking screw and clamping screws , which are screwed into lateral side of the clamp passing through its entire dimension and in the lateral peripheral sides of the clamping plate height-adjustable stop rails are mounted on bolts located on the sides of the clamping plate .
A process for producing superabsorbent particles by polymerizing a monomer solution or suspension comprising a) at least one ethylenically unsaturated monomer which bears acid groups and is at least partly neutralized, b) at least one crosslinker, c) at least one initiator, d) optionally one or more ethylenically unsaturated monomers copolymerizable with the monomers mentioned under a) and e) optionally one or more water-soluble polymers, comprising the steps of i) continuously preneutralizing the monomer while cooling and partly recycling the preneutralized monomer into the preneutralization, ii) continuously heating the preneutralized monomer from step i) by means of a heat exchanger, iii) continuously postneutralizing the heated monomer from step ii), iv) adding the crosslinker to the monomer solution from step iii) and v) adding the initiator to the monomer solution from step iv), wherein the monomer solution or suspension is at a temperature of 70 to 99°C prior to entry into the polymerization reactor and the temperature of the heating medium used in the heat exchanger in step ii) is less than 160°C. a) at least one ethylenically unsaturated monomer which bears acid groups and is at least partly neutralized, b) at least one crosslinker, c) at least one initiator, d) optionally one or more ethylenically unsaturated monomers copolymerizable with the monomers mentioned under a) and e) optionally one or more water-soluble polymers, comprising the steps of i) continuously preneutralizing the monomer while cooling and partly recycling the preneutralized monomer into the preneutralization, ii) continuously heating the preneutralized monomer from step i) by means of a heat exchanger, iii) continuously postneutralizing the heated monomer from step ii), iv) adding the crosslinker to the monomer solution from step iii) and v) adding the initiator to the monomer solution from step iv), i) continuously preneutralizing the monomer while cooling and partly recycling the preneutralized monomer into the preneutralization, ii) continuously heating the preneutralized monomer from step i) by means of a heat exchanger, iii) continuously postneutralizing the heated monomer from step ii), iv) adding the crosslinker to the monomer solution from step iii) and v) adding the initiator to the monomer solution from step iv),
A method for producing a thermoplastic polymer composition comprising a hydrogenated block copolymer (a) and a polyisobutylene (b) having a peak top molecular weight (Mp) of 5,000 to 80,000 expressed in terms of standard polystyrene as determined by gel permeation chromatography, the method comprising a first step and a second step: First step: a step of supplying the polyisobutylene (b) to a twin-screw/single-screw extruder of a counter-rotating type, to plasticize the polyisobutylene (b), wherein the twin-screw/single-screw extruder is equipped with a screw which is configured of two screws having a different length from each other, and an upstream part is twin-screw, whereas a downstream part is single-screw; and Second step: a step including a step (i) and a step (ii): (i) a step of supplying the hydrogenated block copolymer (a) to a twin-screw extruder ; and (ii) a step of supplying the polyisobutylene (b) plasticized in the first step to the twin-screw extruder via a quantitative pump and kneading the polyisobutylene (b) together with the hydrogenated block copolymer (a) supplied in the step (i). First step: a step of supplying the polyisobutylene (b) to a twin-screw/single-screw extruder of a counter-rotating type, to plasticize the polyisobutylene (b), wherein the twin-screw/single-screw extruder is equipped with a screw which is configured of two screws having a different length from each other, and an upstream part is twin-screw, whereas a downstream part is single-screw; and Second step: a step including a step (i) and a step (ii): (i) a step of supplying the hydrogenated block copolymer (a) to a twin-screw extruder ; and (ii) a step of supplying the polyisobutylene (b) plasticized in the first step to the twin-screw extruder via a quantitative pump and kneading the polyisobutylene (b) together with the hydrogenated block copolymer (a) supplied in the step (i). (i) a step of supplying the hydrogenated block copolymer (a) to a twin-screw extruder ; and (ii) a step of supplying the polyisobutylene (b) plasticized in the first step to the twin-screw extruder via a quantitative pump and kneading the polyisobutylene (b) together with the hydrogenated block copolymer (a) supplied in the step (i).
An instant noodles container lid that includes a surface member , an intermediate member , and a seal base member having a sealant layer in order, respectively, from one surface side to the other surface side, wherein the surface member has a printed layer (112; 113) in an area other than a predetermined first area , defining a window hole, the intermediate member includes a paper layer , a printed layer , a filling layer , and a wax layer in order, respectively, from the one surface side, and the wax layer is in a second area that covers the first area in a planar view of the lid, a first half cut is formed from the surface member into the paper layer of the intermediate member , in the first area , and a second half cut is formed in the second area from the filling layer of the intermediate member into the paper layer thereof in a portion opposing an outer side of the first area.
An atomizer , comprising an atomization assembly , a liquid storage cavity fluidly connected to the atomization assembly , and an air flow passage communicated with the atomization assembly ; wherein, the atomizer further comprises an air-liquid equilibrium element and an air inlet communicated with the air-liquid equilibrium element ; wherein, the air-liquid equilibrium element is configured to supply air to the liquid storage cavity and store liquid, and the air-liquid equilibrium element comprises liquid storage grooves with capillary force function and an air backflow groove ; the air backflow groove has one end communicated with the liquid storage cavity , and another end communicated with the air inlet , the air backflow groove is communicated with the liquid storage grooves such that the liquid storage grooves are communicated with the liquid storage cavity , and characterised in that the air-liquid equilibrium element comprises a surface tension isolation groove , the surface tension isolation groove is configured to isolate tension for liquid in the liquid storage grooves , the air backflow groove and the surface tension isolation groove are respectively disposed at two opposite sides of the air-liquid equilibrium element , and the air backflow groove is communicated with the air inlet through the surface tension isolation groove . wherein, the air-liquid equilibrium element is configured to supply air to the liquid storage cavity and store liquid, and the air-liquid equilibrium element comprises liquid storage grooves with capillary force function and an air backflow groove ; the air backflow groove has one end communicated with the liquid storage cavity , and another end communicated with the air inlet , the air backflow groove is communicated with the liquid storage grooves such that the liquid storage grooves are communicated with the liquid storage cavity , and characterised in that the air-liquid equilibrium element comprises a surface tension isolation groove , the surface tension isolation groove is configured to isolate tension for liquid in the liquid storage grooves , the air backflow groove and the surface tension isolation groove are respectively disposed at two opposite sides of the air-liquid equilibrium element , and the air backflow groove is communicated with the air inlet through the surface tension isolation groove .
Computer-implemented method for designing a virtual three-dimensional dental design model using an augmented reality application, the augmented reality application being adapted to visualize the dental design model with a preliminary pose and scale in an image of a face comprising a mouth region with a dental situation, and for exporting the dental design model , the method comprising: - creating the dental design model using the augmented reality application, whereafter for exporting the dental design model the following steps are carried out: - providing a three-dimensional scan model of the dental situation, - aligning the scan model and the dental situation in the image to obtain a pose of the scan model , - calculating, based on the preliminary pose and scale and the pose of the scan model , at least one transformation to bring the design model and the scan model into a common coordinate system, in particular wherein the dental design model is brought to a coordinate system of the scan model , and - obtaining an aligned design model by aligning the design model and the scan model in the common coordinate system, and calculating a corrected scale of the dental design model and applying the corrected scale so that the scale of the aligned design model matches the scale of the scan model , wherein calculating the corrected scale comprises calculating a distance of the dental design model to a virtual camera (VC) to match a distance (d) of the scan model to the virtual camera. - creating the dental design model using the augmented reality application, whereafter for exporting the dental design model the following steps are carried out: - providing a three-dimensional scan model of the dental situation, - aligning the scan model and the dental situation in the image to obtain a pose of the scan model , - calculating, based on the preliminary pose and scale and the pose of the scan model , at least one transformation to bring the design model and the scan model into a common coordinate system, in particular wherein the dental design model is brought to a coordinate system of the scan model , and - obtaining an aligned design model by aligning the design model and the scan model in the common coordinate system, and calculating a corrected scale of the dental design model and applying the corrected scale so that the scale of the aligned design model matches the scale of the scan model , wherein calculating the corrected scale comprises calculating a distance of the dental design model to a virtual camera (VC) to match a distance (d) of the scan model to the virtual camera. aligning the design model and the scan model in the common coordinate system, and calculating a corrected scale of the dental design model and applying the corrected scale so that the scale of the aligned design model matches the scale of the scan model , wherein calculating the corrected scale comprises calculating a distance of the dental design model to a virtual camera (VC) to match a distance (d) of the scan model to the virtual camera.