mhurhangee/ep-ind-claims huggingface dataset:
A bubble column reactor (200, 300) comprising: an external reaction vessel (206, 306); and an internal reaction vessel at least partly disposed in said external reaction vessel (206, 306), wherein a first reaction zone is defined inside said external reaction vessel (206, 306) and outside said internal reaction vessel, wherein a second reaction zone is defined inside said internal reaction vessel, wherein said internal reaction vessel defines one or more direct openings that provide direct fluid communication between said first and second reaction zones, wherein said internal reaction vessel has a maximum height (H i), wherein less than about 50 percent of the total open area defined by said direct openings is spaced more than about 0.5H i from the top of said internal reaction vessel; characterized in that said internal reaction vessel defines one or more discharge openings that permit fluid flow out of said second reaction zone but do not provide direct fluid communication between said first and second reaction zones. an external reaction vessel (206, 306); and an internal reaction vessel at least partly disposed in said external reaction vessel (206, 306), wherein a first reaction zone is defined inside said external reaction vessel (206, 306) and outside said internal reaction vessel, wherein a second reaction zone is defined inside said internal reaction vessel, wherein said internal reaction vessel defines one or more direct openings that provide direct fluid communication between said first and second reaction zones, wherein said internal reaction vessel has a maximum height (H i), wherein less than about 50 percent of the total open area defined by said direct openings is spaced more than about 0.5H i from the top of said internal reaction vessel; characterized in that said internal reaction vessel defines one or more discharge openings that permit fluid flow out of said second reaction zone but do not provide direct fluid communication between said first and second reaction zones.
Method for estimating a 3D saliency map from a scene comprising the steps of: a. providing 3D point cloud representation of the scene, each point being characterized by at least one perceptual property; b. segmenting said point cloud representation into supervoxel of comparable size and perceptual property; c. determining the rarity level of each supervoxel by comparing the perceptual properties of each supervoxel to other values of said supervoxels perceptual property in the entire scene and/or by computing the local contrast of the perceptual property of a supervoxel with said perceptual property of the neighbouring supervoxels, the rarity level associated to each supervoxel forming the saliency map. a. providing 3D point cloud representation of the scene, each point being characterized by at least one perceptual property; b. segmenting said point cloud representation into supervoxel of comparable size and perceptual property; c. determining the rarity level of each supervoxel by comparing the perceptual properties of each supervoxel to other values of said supervoxels perceptual property in the entire scene and/or by computing the local contrast of the perceptual property of a supervoxel with said perceptual property of the neighbouring supervoxels,
Sliding door closing device with a body and adjustment and cushioning system, with springs, chokes and attachments, wherein in the lower part of the body, there is a longitudinal pusher in parallel to its base, and in the upper part of the body, there are longitudinal holes (23a, 23b) in its side walls, located near the ends of the body, and above the pusher, there is a slider with lateral holes (24a, 24b) at the ends, and inside the slider, there are two chambers, whereby in one of them, there is a closing device spring and a closing device choke, and in the other chamber, there is a closing device gripper, mounted slidably, connected with the closing device choke and remaining in contact with the closing device spring, and the end of the slider, at the side at which there is the closing device spring and the closing device choke, is terminated with a hooked attachment, and on one of the outer sides of the body, an opening device spring is attached, and an opening device choke on the opposite side, whereby the ends of the opening device spring and of the opening device choke are on one side permanently attached to the walls of the body and, on the other side, connected with a lateral joiner placed through the longitudinal holes in the body and lateral holes in the slider, and at one of the ends, the body is provided with a rotary and spring mounted slider gripper remaining in contact with the pusher and provided with an attachment that fits to the attachment at the end of the slider, and on the opposite side of the body, there is a permanently fixed housing (3,4) in which there are two rollers (10a, 10b) arranged in parallel to the body base, whereby one roller is movable, and the other roller is stationary, and the movable roller is located in a support, which is spring mounted to the housing (3,4) and provided with a support wedge which remains in contact with the end of the pusher; wherein the opening device, formed by the opening device spring and the opening device choke, allows the opening of the door by pushing the door on a vertical strip or on the edge by moving the support on the movable roller and simultaneously moves the pusher on the support wedge and the pusher releases the slider from the slider gripper.
A compound of formula, or a pharmaceutically acceptable salt thereof, wherein A represents R 1 represents hydrogen, C 1-4 alkyl or C 1-4 alkoxy; R 2 and R 3 independently represent hydrogen, C 1-6 alkyl, C 1-6 haloalkyl, C 1-6 alkoxy, C 3-6 cycloalkyl or R 2 and R 3 together with the carbon atom to which they are attached form a 3- to 6-membered ring which may contain one heteroatom; X is N or ―CH; R 4 represents hydrogen or amino; Y is N or ―CR 5; R 5 is hydrogen or fluorine; Z is N or -CR 9; n is 0, 1 or 2; W is ―C(=O)- or ―S 2 -; R 6 and R 7 independently represent hydrogen, fluorine or C 1-4 alkyl; R 8 represents hydrogen, C 1-6 alkyl, C 3-6 cycloalkylC 1-6 alkyl, C 1-4 alkoxyC 1-6 alkyl, hydroxyC 1-6 alkyl; R 9 represents hydrogen, halogen or C 1-4 alkyl; and R 10 represents hydrogen or halogen. A represents R 1 represents hydrogen, C 1-4 alkyl or C 1-4 alkoxy; R 2 and R 3 independently represent hydrogen, C 1-6 alkyl, C 1-6 haloalkyl, C 1-6 alkoxy, C 3-6 cycloalkyl or R 2 and R 3 together with the carbon atom to which they are attached form a 3- to 6-membered ring which may contain one heteroatom; X is N or ―CH; R 4 represents hydrogen or amino; Y is N or ―CR 5; R 5 is hydrogen or fluorine; Z is N or -CR 9; n is 0, 1 or 2; W is ―C(=O)- or ―S 2 -; R 6 and R 7 independently represent hydrogen, fluorine or C 1-4 alkyl; R 8 represents hydrogen, C 1-6 alkyl, C 3-6 cycloalkylC 1-6 alkyl, C 1-4 alkoxyC 1-6 alkyl, hydroxyC 1-6 alkyl; R 9 represents hydrogen, halogen or C 1-4 alkyl; and R 10 represents hydrogen or halogen.
A combined light switch and thermostat for deployment in a room of a property, comprising: a screen for displaying at least a portion of a user interface of the combined light switch and thermostat; a power relay configured to control alternating current, AC, power flow to at least one lighting device wired through the combined light switch and thermostat; one or more network interfaces configured to communicate with one or more in-room devices of the room of the property and a central host controller that administers and controls a plurality of rooms of the property, wherein the one or more in-room devices include at least a climate control device; a processor configured to execute control code; a memory configured to store the control code, wherein the control code when executed is operable to, in response to user input in the user interface of the combined light switch and thermostat, control AC power flow to the least one lighting device wired through the combined light switch and thermostat or issue control commands to the one or more in-room devices, and in response to a service request from the central host controller, control A/C power flow to the least one lighting device wired through the combined light switch and thermostat or issue control commands to the one or more in-room devices. a screen for displaying at least a portion of a user interface of the combined light switch and thermostat; a power relay configured to control alternating current, AC, power flow to at least one lighting device wired through the combined light switch and thermostat; one or more network interfaces configured to communicate with one or more in-room devices of the room of the property and a central host controller that administers and controls a plurality of rooms of the property, wherein the one or more in-room devices include at least a climate control device; a processor configured to execute control code; a memory configured to store the control code, wherein the control code when executed is operable to, in response to user input in the user interface of the combined light switch and thermostat, control AC power flow to the least one lighting device wired through the combined light switch and thermostat or issue control commands to the one or more in-room devices, and in response to a service request from the central host controller, control A/C power flow to the least one lighting device wired through the combined light switch and thermostat or issue control commands to the one or more in-room devices. in response to user input in the user interface of the combined light switch and thermostat, control AC power flow to the least one lighting device wired through the combined light switch and thermostat or issue control commands to the one or more in-room devices, and in response to a service request from the central host controller, control A/C power flow to the least one lighting device wired through the combined light switch and thermostat or issue control commands to the one or more in-room devices.
A computer-implemented method of detecting unknown classes in an image, comprising: generating a first classifier for a first plurality of classes, each class corresponding to an object in the image, the first classifier receiving input data in the form of the image, and an output of the first classifier having a vector of scores of dimension of at least two, the vector of scores indicating the confidence of the input data belonging to one or more classes of the first plurality of classes, and wherein the scores are raw scores output by the first classifier for data which is not normalized; designing a second classifier to receive, as an input, the output of the first classifier, wherein the second classifier is a binary classifier that is adapted to decide whether the input data belongs to the first plurality of classes or an unknown class based on a threshold set for each of the top two scores, wherein designing the second classifier comprises training the second classifier with examples of data belonging to the first plurality of classes and data not belonging to the first plurality of classes and adjusting the thresholds; and classifying the input data into the unknown class when the input data does not belong to one of the first plurality of classes, wherein classifying the input data further comprises: the second classifier classifying the input data into the unknown class when the vector of scores is less than the threshold for each of the top two scores; and the second classifier determining that the input data is known when the vector of scores is greater than the threshold for the top two scores and the first classifier classifying the input data into a class of the first plurality of classes. generating a first classifier for a first plurality of classes, each class corresponding to an object in the image, the first classifier receiving input data in the form of the image, and an output of the first classifier having a vector of scores of dimension of at least two, the vector of scores indicating the confidence of the input data belonging to one or more classes of the first plurality of classes, and wherein the scores are raw scores output by the first classifier for data which is not normalized; designing a second classifier to receive, as an input, the output of the first classifier, wherein the second classifier is a binary classifier that is adapted to decide whether the input data belongs to the first plurality of classes or an unknown class based on a threshold set for each of the top two scores, wherein designing the second classifier comprises training the second classifier with examples of data belonging to the first plurality of classes and data not belonging to the first plurality of classes and adjusting the thresholds; and the second classifier classifying the input data into the unknown class when the vector of scores is less than the threshold for each of the top two scores; and the second classifier determining that the input data is known when the vector of scores is greater than the threshold for the top two scores and the first classifier classifying the input data into a class of the first plurality of classes.
A nucleic acid construct comprising a sequence that encodes a human telomerase reverse transcriptase (hTERT) protein which is devoid of telomerase catalytic activity and of a nucleolar localization signal,wherein the hTERT protein is fused at N-terminus with ubiquitin or calreticulin.
A method for generating a camshaft signature for camshaft positioning calibration for a camshaft (102, 104) comprised in an combustion engine, the camshaft is adapted to cause a valve (109,120) to open and close an opening to a cylinder volume of the combustion engine, the combustion engine further comprises an intake surge tank adapted for receiving air from the outside environment, the intake surge tank is in fluid connection with the cylinder volume of the combustion engine for providing air for mixing with fuel injected into the cylinder, wherein the method comprises: - operating the combustion engine at a predetermined rotation speed; - providing a constant gas flow into the intake surge tank; - measuring a set of camshaft positions and a set of pressure values indicative of the pressure in the intake surge tank while the camshaft is rotated and the gas flow into the intake surge tank is maintained constant; and - providing a camshaft signature comprising the set of camshaft positions and the set of pressure values. - operating the combustion engine at a predetermined rotation speed; - providing a constant gas flow into the intake surge tank; - measuring a set of camshaft positions and a set of pressure values indicative of the pressure in the intake surge tank while the camshaft is rotated and the gas flow into the intake surge tank is maintained constant; and - providing a camshaft signature comprising the set of camshaft positions and the set of pressure values.
A blood test method comprising: providing a blood sample containing an anticoagulant containing ethylenediaminetetraacetic acid (EDTA) salt other than sodium salt, potassium salt, or calcium salt of EDTA; and measuring a blood count and an electrolyte in the blood sample. providing a blood sample containing an anticoagulant containing ethylenediaminetetraacetic acid (EDTA) salt other than sodium salt, potassium salt, or calcium salt of EDTA; and measuring a blood count and an electrolyte in the blood sample.
Method for controlling of a dumping of a load of an earth moving machine, which has a conveying container configured for carrying the load, wherein the method comprises • accessing sensor data comprising o perception data capturing a conveying container surrounding and at least part of the conveying container and/or o machine sensing data providing a machine parameter that is indicative of a force exerted onto the earth moving machine in reaction to material in the conveying container and/or in reaction to an excavation process by the conveying container, • analyzing the sensor data to determine a material parameter or a set of different material parameters, the material parameter or the set of different material parameters providing information (17, 18, 19, 20) on an adhesive property of a current load of the conveying container, • selecting a dumping mode for unloading the conveying container out of different dumping modes based on the material parameter or the set of different material parameters, and • providing control data for maneuvering the conveying container according to the selected dumping mode. • accessing sensor data comprising o perception data capturing a conveying container surrounding and at least part of the conveying container and/or o machine sensing data providing a machine parameter that is indicative of a force exerted onto the earth moving machine in reaction to material in the conveying container and/or in reaction to an excavation process by the conveying container, o perception data capturing a conveying container surrounding and at least part of the conveying container and/or o machine sensing data providing a machine parameter that is indicative of a force exerted onto the earth moving machine in reaction to material in the conveying container and/or in reaction to an excavation process by the conveying container, • analyzing the sensor data to determine a material parameter or a set of different material parameters, the material parameter or the set of different material parameters providing information (17, 18, 19, 20) on an adhesive property of a current load of the conveying container, • selecting a dumping mode for unloading the conveying container out of different dumping modes based on the material parameter or the set of different material parameters, and • providing control data for maneuvering the conveying container according to the selected dumping mode.
A battery pack, comprising: a plurality of secondary batteries, each of the secondary batteries comprising a housing which comprises a weakened portion, so that when a secondary battery of the plurality of secondary batteries undergoes thermal runaway, a heat flow resulting from thermal runaway of the secondary battery is capable of breaking through the weakened portion to be discharged; a spray pipeline which is arranged corresponding to and at a spacing from weakened portions of the secondary batteries, at least a portion of the spray pipeline corresponding to the weakened portions being a breakthrough region which is capable of forming an opening under an action of the heat flow, a spray medium in the spray pipeline being sprayed to an abnormal secondary battery in thermal runaway via the opening; wherein a weight A of the spray medium which is sprayed to alleviate spreading of the thermal runaway of the abnormal secondary battery satisfies the equation, 0.8 A 0.85 × D B ⩾ 2.6 in which, A indicates the weight of the spray medium by kg; D indicates a latent heat of the spray medium by kJ/kg; B indicates a capacity of the secondary battery by Ah; wherein the battery pack comprises a spray medium greater than or equal to the weight A stored in the spray pipeline or stored in the spray pipeline and a storage case connected to the spray pipeline. a plurality of secondary batteries, each of the secondary batteries comprising a housing which comprises a weakened portion, so that when a secondary battery of the plurality of secondary batteries undergoes thermal runaway, a heat flow resulting from thermal runaway of the secondary battery is capable of breaking through the weakened portion to be discharged; a spray pipeline which is arranged corresponding to and at a spacing from weakened portions of the secondary batteries, at least a portion of the spray pipeline corresponding to the weakened portions being a breakthrough region which is capable of forming an opening under an action of the heat flow, a spray medium in the spray pipeline being sprayed to an abnormal secondary battery in thermal runaway via the opening; wherein a weight A of the spray medium which is sprayed to alleviate spreading of the thermal runaway of the abnormal secondary battery satisfies the equation, 0.8 A 0.85 × D B ⩾ 2.6 in which, A indicates the weight of the spray medium by kg; D indicates a latent heat of the spray medium by kJ/kg; B indicates a capacity of the secondary battery by Ah; wherein the battery pack comprises a spray medium greater than or equal to the weight A stored in the spray pipeline or stored in the spray pipeline and a storage case connected to the spray pipeline.
An electrically conductive adhesive agent composition comprising: a metal particle; and an organophosphorus compound represented by the general formula below, wherein the metal particle comprises a first metal particle made of a single metal selected from the group of copper, nickel, aluminum and tin or an alloy comprising two or more metals selected from said group in the general formula, each R independently represents an organic group, R may be the same or different with each other, each R independently comprises, in its moiety, one or more group selected from a vinyl group, an acrylic group, a methacrylic group, a maleic acid ester group, a maleic acid amide group, a maleic acid imide group, a primary amino group, a secondary amino group, a hydrosilyl group, a hydroboron group, and an epoxy group, wherein in the formula x = 3 and y= 0. a metal particle; and an organophosphorus compound represented by the general formula below, wherein the metal particle comprises a first metal particle made of a single metal selected from the group of copper, nickel, aluminum and tin or an alloy comprising two or more metals selected from said group in the general formula, each R independently represents an organic group, R may be the same or different with each other, each R independently comprises, in its moiety, one or more group selected from a vinyl group, an acrylic group, a methacrylic group, a maleic acid ester group, a maleic acid amide group, a maleic acid imide group, a primary amino group, a secondary amino group, a hydrosilyl group, a hydroboron group, and an epoxy group, wherein in the formula x = 3 and y= 0.
An apparatus for wireless communication, comprising: a receiver configured to receive a wireless communication in a channel of a white space, the wireless communication authorizing an initial transmission and identifying transmit power information (606, 616, 626, 636) for communicating in the white space; and a transmitter configured to wirelessly transmit a request for information identifying one or more channels in the white space for transmitting data, the request being transmitted with a power that is based at least in part on the transmit power information (606, 616, 626, 636) received in the wireless communication; wherein the transmit power information (606, 616, 626, 636) identifies a plurality of device types, and further identifies a maximum transmit power for each of the plurality of device types. a receiver configured to receive a wireless communication in a channel of a white space, the wireless communication authorizing an initial transmission and identifying transmit power information (606, 616, 626, 636) for communicating in the white space; and a transmitter configured to wirelessly transmit a request for information identifying one or more channels in the white space for transmitting data, the request being transmitted with a power that is based at least in part on the transmit power information (606, 616, 626, 636) received in the wireless communication; wherein the transmit power information (606, 616, 626, 636) identifies a plurality of device types, and further identifies a maximum transmit power for each of the plurality of device types.