mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method, comprising: receiving an instance of an event generated by a new version of a software application ; correlating the event with historical data about one or more related events , wherein instances of the one or more related events were generated by a plurality of instances of an existing deployment of the software application , wherein instances of the one or more related events have been processed by a server computer , and wherein the existing deployment of the software application is different than the new version of the software application ; and estimating a resource utilization for the server computer to process instances of the event received from a plurality of deployments of the new version of the software application based on the historical data about the one or more related events . receiving an instance of an event generated by a new version of a software application ; correlating the event with historical data about one or more related events , wherein instances of the one or more related events were generated by a plurality of instances of an existing deployment of the software application , wherein instances of the one or more related events have been processed by a server computer , and wherein the existing deployment of the software application is different than the new version of the software application ; and estimating a resource utilization for the server computer to process instances of the event received from a plurality of deployments of the new version of the software application based on the historical data about the one or more related events .
Hatching method, designed to hatch eggs in at least one tray, comprising: - arranging eggs in a pattern in or on the tray, comprising egg supporting positions and holes, wherein the holes are dimensioned to allow chicks after hatching to pass there through into a crate; - allowing a predetermined time for the chicks to hatch; and - processing chicks in the crate, CHARACTERISED IN THAT processing chicks in the tray comprises: - detecting, after lapse of the predetermined time, at least one of the parameters from a group, comprising: numbers of unhatched eggs in or on the tray; numbers of dead chicks in the crate; and numbers of objectionable chicks in the crate, and - supplementing or removing chicks in or from the crate based on any one or more than one of the detected numbers in comparison with a predetermined desired number of chicks in the crate, corresponding with a number of chicks arranged in the crate for transport. - arranging eggs in a pattern in or on the tray, comprising egg supporting positions and holes, wherein the holes are dimensioned to allow chicks after hatching to pass there through into a crate; - allowing a predetermined time for the chicks to hatch; and - processing chicks in the crate, CHARACTERISED IN THAT processing chicks in the tray comprises: - detecting, after lapse of the predetermined time, at least one of the parameters from a group, comprising: numbers of unhatched eggs in or on the tray; numbers of dead chicks in the crate; and numbers of objectionable chicks in the crate, and - supplementing or removing chicks in or from the crate based on any one or more than one of the detected numbers in comparison with a predetermined desired number of chicks in the crate, corresponding with a number of chicks arranged in the crate for transport.
A resin composition comprising: an allyl group-containing compound (A); and a maleimide compound (B), wherein the allyl group-containing compound (A) has a reactive functional group other than the allyl group and comprises a compound represented by the following formula (7-1): an allyl group-containing compound (A); and a maleimide compound (B),
A drive apparatus to rotate a lace spool of a motorized lacing engine within a footwear platform, the apparatus comprising: a gear motor ; and a gear box mechanically coupled to the gear motor , the gear box including a drive shaft extending opposite the gear motor ; characterised in that the apparatus further comprises: a worm drive slidably keyed to the drive shaft to control rotation of the worm drive in response to gear motor activation, the worm drive including a worm drive key on a first end surface of the worm drive , the first end surface adjacent to the gear box ; and a worm gear including gear teeth engaging a threaded surface of the worm drive to cause rotation of the worm gear in response to rotation of the worm drive , the worm gear rotating the lace spool upon rotation of the worm drive to tighten or loosen a lace cable on the footwear platform. a gear motor ; and a gear box mechanically coupled to the gear motor , the gear box including a drive shaft extending opposite the gear motor ; characterised in that the apparatus further comprises: a worm drive slidably keyed to the drive shaft to control rotation of the worm drive in response to gear motor activation, the worm drive including a worm drive key on a first end surface of the worm drive , the first end surface adjacent to the gear box ; and a worm gear including gear teeth engaging a threaded surface of the worm drive to cause rotation of the worm gear in response to rotation of the worm drive , the worm gear rotating the lace spool upon rotation of the worm drive to tighten or loosen a lace cable on the footwear platform. a worm drive slidably keyed to the drive shaft to control rotation of the worm drive in response to gear motor activation, the worm drive including a worm drive key on a first end surface of the worm drive , the first end surface adjacent to the gear box ; and a worm gear including gear teeth engaging a threaded surface of the worm drive to cause rotation of the worm gear in response to rotation of the worm drive , the worm gear rotating the lace spool upon rotation of the worm drive to tighten or loosen a lace cable on the footwear platform.
A device for treating a cytological or histological preparation characterised in that said device includes: - a carousel , including at least one location able to receive a blade able to receive a cytological or histological preparation , said carousel being rotatably mounted about an axis of rotation ; - a nebulising head passing above said carousel , including a piezoelectric element and a volume of a reagent such that said nebulising head expulses at least one reagent droplet under the effect of the deformation of said piezoelectric element . - a carousel , including at least one location able to receive a blade able to receive a cytological or histological preparation , said carousel being rotatably mounted about an axis of rotation ; - a nebulising head passing above said carousel , including a piezoelectric element and a volume of a reagent such that said nebulising head expulses at least one reagent droplet under the effect of the deformation of said piezoelectric element .
Microscope for performing eye surgery on an observed eye, the microscope comprising an illumination and observation system , wherein the illumination and observation system comprises: - a first, second, third and fourth observation pupil for the eyes of two observers such as a surgeon and an assistant, - a coaxial illumination in the first, third and fourth observation pupil to generate a red reflex in the first, third and fourth observation pupil , - and a main illumination , the main illumination having a larger field of illumination than the coaxial illumination, wherein the main illumination overlaps at least 50 % of the second observation pupil to generate a red reflex in the second observation pupil , characterized in that the microscope is configured such that each of the first, second, third and fourth observation pupil is associated with a separate light source . - a first, second, third and fourth observation pupil for the eyes of two observers such as a surgeon and an assistant, - a coaxial illumination in the first, third and fourth observation pupil to generate a red reflex in the first, third and fourth observation pupil , - and a main illumination , the main illumination having a larger field of illumination than the coaxial illumination,
Light output device comprising - a planar OLED element on a substrate , wherein the OLED element comprises a first electrode arranged on the substrate , an organic layer arranged on the first electrode and a second electrode arranged on the organic layer, and - an encapsulation element for protecting the OLED element, wherein the encapsulation element is designed in such a way that it extends over the electrode that is opposite the substrate with reference to the organic layer, - a carrier on which the OLED element is arranged in such a way that the encapsulation element points to the carrier and - an electrical conductor element for an electrical connection between the carrier and the OLED element, wherein the electrical conductor element is elastic in a direction normal to the OLED element, wherein the carrier comprises a surface , which points to the OLED element and to which are applied conductor paths for the power supply of the OLED Element, characterized in that when viewed in the direction normal to the OLED element, a) the encapsulation element has a smaller surface than the substrate and is completely within the normal projection of the substrate , and b) an electrical contact region arranged on the substrate and next to the encapsulation element , wherein the electrical contact region for a first electrode of the OLED element is arranged within the normal projection of the substrate but outside the normal projection of the encapsulation element . - a planar OLED element on a substrate , wherein the OLED element comprises a first electrode arranged on the substrate , an organic layer arranged on the first electrode and a second electrode arranged on the organic layer, and - an encapsulation element for protecting the OLED element, wherein the encapsulation element is designed in such a way that it extends over the electrode that is opposite the substrate with reference to the organic layer, - a carrier on which the OLED element is arranged in such a way that the encapsulation element points to the carrier and - an electrical conductor element for an electrical connection between the carrier and the OLED element, a) the encapsulation element has a smaller surface than the substrate and is completely within the normal projection of the substrate , and b) an electrical contact region arranged on the substrate and next to the encapsulation element , wherein the electrical contact region for a first electrode of the OLED element is arranged within the normal projection of the substrate but outside the normal projection of the encapsulation element .
A method for facing bulk material, the method comprising: engaging a defacer with a silo face of a bulk material; and simultaneously displacing the defacer to move across the silo face of the bulk material to define a negative rake angle in the silo face by use of an electrical or mechanical coupling that coordinates horizontal and vertical movement of the defacer , and wherein the defacer is coupled to an end of an articulating arm of a machine , characterized in that displacing the defacer to move across the silo face of the bulk material to define the negative rake angle in the silo face comprises detecting a position of the defacer relative to the silo face of the bulk material. engaging a defacer with a silo face of a bulk material; and simultaneously displacing the defacer to move across the silo face of the bulk material to define a negative rake angle in the silo face by use of an electrical or mechanical coupling that coordinates horizontal and vertical movement of the defacer , and wherein the defacer is coupled to an end of an articulating arm of a machine , characterized in that displacing the defacer to move across the silo face of the bulk material to define the negative rake angle in the silo face comprises detecting a position of the defacer relative to the silo face of the bulk material.
An object positioning method comprising: obtaining a reference position of an object; obtaining a map-based heading angle of the object based on waypoints on a map (504; 701); obtaining, using at least one sensor which preferably comprises an acceleration sensor and a direction sensor, a speed and a sensor-based heading angle of the object; generating a second heading angle, comprising: comparing the map-based heading angle and the sensor-based heading angle to determine a difference between the map-based heading angle and the sensor-based heading angle; and when the difference between the map-based heading angle (202; 303; 402; 704; 811) and the sensor-based heading angle (203; 302; 403) is less than a threshold angle, the second heading angle is the map-based heading angle; and when the difference between the map-based heading angle and the sensor-based heading angle is greater than the threshold angle, the second heading angle is the sensor-based heading angle; performing dead reckoning based on the reference position (201; 705; 803), second heading angle, and the speed ; and determining a current position of the object based on a result of the dead reckoning. obtaining a reference position of an object; obtaining a map-based heading angle of the object based on waypoints on a map (504; 701); obtaining, using at least one sensor which preferably comprises an acceleration sensor and a direction sensor, a speed and a sensor-based heading angle of the object; generating a second heading angle, comprising: comparing the map-based heading angle and the sensor-based heading angle to determine a difference between the map-based heading angle and the sensor-based heading angle; and when the difference between the map-based heading angle (202; 303; 402; 704; 811) and the sensor-based heading angle (203; 302; 403) is less than a threshold angle, the second heading angle is the map-based heading angle; and when the difference between the map-based heading angle and the sensor-based heading angle is greater than the threshold angle, the second heading angle is the sensor-based heading angle; comparing the map-based heading angle and the sensor-based heading angle to determine a difference between the map-based heading angle and the sensor-based heading angle; and when the difference between the map-based heading angle (202; 303; 402; 704; 811) and the sensor-based heading angle (203; 302; 403) is less than a threshold angle, the second heading angle is the map-based heading angle; and when the difference between the map-based heading angle and the sensor-based heading angle is greater than the threshold angle, the second heading angle is the sensor-based heading angle; performing dead reckoning based on the reference position (201; 705; 803), second heading angle, and the speed ; and determining a current position of the object based on a result of the dead reckoning.
A kit for measuring a measurement target substance in a biological sample, the kit comprising: a labeled particle having a first binding substance capable of binding to a measurement target substance in a biological sample; and a substrate having a second binding substance capable of binding to any one of the measurement target substance or the first binding substance, wherein the labeled particle is a luminescent labeled particle containing at least one kind of compound represented by Formula and a particle, in the formula, R 11 and R 15 each independently represent an alkyl group or an aryl group, each of which may have a substituent; R 12 and R 14 each independently represent an alkyl group which may have a substituent; R 13 represents an aryl group which may have a substituent; X 1 and X 2 each represent a fluorine atom; Ar 1 and Ar 2 each independently represent an aryl group, each of which may have a substituent; and L 1 and L 2 each independently represent Formula (L-1)or (L-2), a labeled particle having a first binding substance capable of binding to a measurement target substance in a biological sample; and a substrate having a second binding substance capable of binding to any one of the measurement target substance or the first binding substance, wherein the labeled particle is a luminescent labeled particle containing at least one kind of compound represented by Formula and a particle, in the formula, R 11 and R 15 each independently represent an alkyl group or an aryl group, each of which may have a substituent; R 12 and R 14 each independently represent an alkyl group which may have a substituent; R 13 represents an aryl group which may have a substituent; X 1 and X 2 each represent a fluorine atom; Ar 1 and Ar 2 each independently represent an aryl group, each of which may have a substituent; and L 1 and L 2 each independently represent Formula (L-1)or (L-2),
Bicycle frame having an energy storage device , in particular a battery pack, and at least one frame section that is embodied so as to mount the energy storage device in a removable manner, wherein the frame section that is embodied so as to mount the energy storage device in a removable manner comprises an asymmetrical cross section in relation to a frame central plane , characterised in that the frame section comprises an at least in sections L-shaped cross section and that the cross section of the frame section and the cross section of the energy storage device complete an entire rectangular cross section.
A computer-implemented method for assisting in the maintenance of a mobile platform by determining occurrence probabilities of one or more potential causes of an event detected onboard the mobile platform, the method performed by a ground based apparatus remote from the mobile platform while the mobile platform is in flight, the method comprising: receiving, at the ground based apparatus and from the mobile platform, an identification of the event associated with a system of the mobile platform; using the identification of the event and predefined diagnostic rules associated with the event, identifying the one or more potential causes of the event; using other data related to the event, computing an occurrence probability for each potential cause for the event; and generating an output, the output comprising an identification of each potential cause; the occurrence probability of each potential cause; and an indication of one or more types of other data used to compute the occurrence probability of each potential cause, wherein the other data comprises: - current data received from the mobile platform, the current data including a sensed parameter or a derived parameter associated with the system; - historical data; - environmental data, and - fleet data, wherein the occurrence probability of each potential cause is refined by weightings of one or more of the historical data and fleet data, and said weightings are refined by the current data and the environmental data. receiving, at the ground based apparatus and from the mobile platform, an identification of the event associated with a system of the mobile platform; using the identification of the event and predefined diagnostic rules associated with the event, identifying the one or more potential causes of the event; using other data related to the event, computing an occurrence probability for each potential cause for the event; and generating an output, the output comprising an identification of each potential cause; the occurrence probability of each potential cause; and an indication of one or more types of other data used to compute the occurrence probability of each potential cause, wherein the other data comprises: - current data received from the mobile platform, the current data including a sensed parameter or a derived parameter associated with the system; - historical data; - environmental data, and - fleet data, - current data received from the mobile platform, the current data including a sensed parameter or a derived parameter associated with the system; - historical data; - environmental data, and - fleet data, wherein the occurrence probability of each potential cause is refined by weightings of one or more of the historical data and fleet data, and said weightings are refined by the current data and the environmental data.
A crusher for rubble comprising: - a crushing chamber in which the rubble are crushed; - at least one crushing group inserted into said crushing chamber for crushing rubble; - at least one conveying channel of the rubble toward said crushing group , characterized in that said crusher comprises two or more pushers acting in said conveying channel toward said crushing group to push the rubble against said crushing group , at least one of said pushers being separately and independently controlled from the other to allow to move it in the rest position for a while when one or more of the other are working in the conveying channel , said pushers comprising at least one actuator acting on at least one pusher head acting against the rubble to push them against said crushing group , wherein said crusher further comprises shaped projections on the surface of said pusher head facing towards said crushing group to cooperate with the latter on crushing the rubble. - a crushing chamber in which the rubble are crushed; - at least one crushing group inserted into said crushing chamber for crushing rubble; - at least one conveying channel of the rubble toward said crushing group ,
A heat-radiating fluid composition comprising: a non-conductive oil; 5 to 200 parts by weight of a first fluid having a dielectric constant of 45 or less; and 5 to 50 parts by weight of hollow inorganic particles, based on 100 parts by weight of the non-conductive oil, wherein the non-conductive oil and the first fluid are phase-separated, wherein the heat-radiating fluid composition further comprises a second fluid which is different from and miscible with the first fluid, and at least a part of the second fluid is located in hollows of the hollow inorganic particles. a non-conductive oil; 5 to 200 parts by weight of a first fluid having a dielectric constant of 45 or less; and 5 to 50 parts by weight of hollow inorganic particles, based on 100 parts by weight of the non-conductive oil, wherein the non-conductive oil and the first fluid are phase-separated, wherein the heat-radiating fluid composition further comprises a second fluid which is different from and miscible with the first fluid, and at least a part of the second fluid is located in hollows of the hollow inorganic particles.
A piston compressor comprising a cylinder and a piston arranged therein, a carrier housing with a crosshead mounted in the carrier housing , a spacer which connects the cylinder to the carrier housing , and a piston rod running in a longitudinal direction (L) which connects the crosshead to the piston , the spacer comprising a plurality of support arms extending in the longitudinal direction (L), characterized in that the support arms are each individually connected to the cylinder towards the cylinder .
Robotic vacuum cleaner for autonomously cleaning surfaces, comprising at least one side brush which faces the surface to be cleaned, the at least one side brush comprising a rotary element , brush elements being arranged on the rotary element , the rotary element being rotatably mounted about an axis of rotation , the rotary element which rotates about the axis of rotation being movable perpendicularly relative to the axis of rotation , characterised in that the rotary element is movable in all directions of a plane which is substantially perpendicular to the axis of rotation .