mhurhangee/ep-ind-claims huggingface dataset:
A method for representing a color image as binary data, comprising the steps of: providing one or more computers containing executable instructions to implement the functions of: receiving a frame of color image data, said color image data comprising a plurality of input pixel values corresponding to a plurality of pixel positions in an image, wherein said input pixel values are represented as N-bit values, and wherein N>1; defining a plurality of color ranges utilizing said one or more computers; assigning each of said pixel positions to one of said color ranges based on the input pixel value for that pixel position utilizing said one or more computers; defining a plurality of spatial binary patterns of pixel positions utilizing said one or more computers, wherein each of said spatial binary patterns of pixel positions is different; assigning each of said plurality of color ranges to one of said spatial binary patterns of pixel positions utilizing said one or more computers; and assigning to each of said pixel positions an output pixel value representative of said one of said spatial binary patterns of pixel positions assigned to said one of said color ranges assigned to that pixel position utilizing said one or more computers. providing one or more computers containing executable instructions to implement the functions of: receiving a frame of color image data, said color image data comprising a plurality of input pixel values corresponding to a plurality of pixel positions in an image, wherein said input pixel values are represented as N-bit values, and wherein N>1; receiving a frame of color image data, said color image data comprising a plurality of input pixel values corresponding to a plurality of pixel positions in an image, wherein said input pixel values are represented as N-bit values, and wherein N>1; defining a plurality of color ranges utilizing said one or more computers; assigning each of said pixel positions to one of said color ranges based on the input pixel value for that pixel position utilizing said one or more computers; defining a plurality of spatial binary patterns of pixel positions utilizing said one or more computers, wherein each of said spatial binary patterns of pixel positions is different; assigning each of said plurality of color ranges to one of said spatial binary patterns of pixel positions utilizing said one or more computers; and assigning to each of said pixel positions an output pixel value representative of said one of said spatial binary patterns of pixel positions assigned to said one of said color ranges assigned to that pixel position utilizing said one or more computers.
A robot system comprising: a robot having a base, a robot arm coupled to the base, a drive source that drives the robot arm, a supply unit that supplies electric power to the drive source, and a switch mechanism that switches between a conduction state in which the drive source and the supply unit; are conducting and a non-conduction state in which the drive source and the supply unit are not conducting; and a vehicle having a movement mechanism that transports the robot and an operation portion that operates the switch mechanism and turns the conduction state to the non-conduction state, and being configured to take a coupled state in which the vehicle is coupled to the base and a decoupled state in which the vehicle is decoupled from the base, wherein the operation portion operates the switch mechanism in the coupled state. a robot having a base, a robot arm coupled to the base, a drive source that drives the robot arm, a supply unit that supplies electric power to the drive source, and a switch mechanism that switches between a conduction state in which the drive source and the supply unit; are conducting and a non-conduction state in which the drive source and the supply unit are not conducting; and a vehicle having a movement mechanism that transports the robot and an operation portion that operates the switch mechanism and turns the conduction state to the non-conduction state, and being configured to take a coupled state in which the vehicle is coupled to the base and a decoupled state in which the vehicle is decoupled from the base, wherein the operation portion operates the switch mechanism in the coupled state.
Household cooking appliance, in particular baking oven, with a receiving region which has a loading opening, a door hinged on the receiving region in a pivotable manner for closing off the loading opening, an illumination facility provided in or on the door for illuminating the interior of the receiving region, a first electrical contact point provided on the door, a second electrical contact point provided on the door, a first contact facility for electrically contacting the first contact point and a second contact facility for electrically contacting the second contact point, wherein in a closed position of the door, in which the contact facilities (20,21) contact the respective contact points (25, 26), a current circuit comprising the illumination facility is closed, wherein in an open position of the door, in which the contact facilities (20, 21) do not contact the respective contact points (25, 26), the current circuit comprising the illumination facility is opened, characterised in that each contact facility (20, 21) has a housing connected to the receiving region and a contact pin received in the housing with a contact section which can be linearly displaced along a longitudinal direction (L 33) of the housing for contacting the respective contact point (25, 26), and each contact facility (20, 21) is fastened to a hinge (18, 19) provided on the side of the receiving region in each case.
A measuring device (42, 43, 44) for measuring force and/or moments between a motorized vehicle and a trailer or attachment pulled or pushed therefrom, wherein the measuring device (42, 43, 44) has at least three sensor elements (22, 34, 47) arranged on a carrier (20, 31, 45) perpendicular to an imaginary longitudinal axis of the motorized vehicle as well as spaced apart from one another, wherein the measuring device (42, 43, 44) is arranged in a coupling region between the motorized vehicle and the pulled or pushed trailer or attachment, and wherein the sensor elements (22, 34, 47) are connected to an evaluation device for transmission of their measurement values, which is set up to convert these measurement values into signals for indicating force and/or moment according to size and direction, characterized in that the measuring device (42, 43, 44) is mounted as a module package on a standard towing bracket on the motorized vehicle and is screwed by means of a coupling carrier arranged on the standard towing bracket to a standard trailer device (17, 27, 29), like a standard mouth type coupling (17, 27) or a standard ball head coupling.
A drainable ostomy pouch, comprising: a bodyside wall and an outer wall defining a cavity therebetween for collecting stomal discharge; a downwardly extending outlet portion terminating in an outlet opening for draining stomal discharge contents collected in the cavity; and an outlet device attached to the outlet portion, wherein the outlet device comprises a closure member and a slider, characterised in that the closure member comprises: a body including first opening, second opening, and four bend zones (28, 30, 32, 34) defined therebetween; and at least one bar (36, 38, 40, 42) arranged on the body proximate the second opening; wherein the closure member is configured to bend along the four bend zones (28, 30, 32, 34) to provide a discharge opening (44, 46) having four angled corners in an open position and to be pressed flat in a closed position; wherein the slider is configured slide over the at least one bar (36, 38, 40, 42) and engage with the closure member to close the discharge opening. a bodyside wall and an outer wall defining a cavity therebetween for collecting stomal discharge; a downwardly extending outlet portion terminating in an outlet opening for draining stomal discharge contents collected in the cavity; and an outlet device attached to the outlet portion, wherein the outlet device comprises a closure member and a slider, characterised in that the closure member comprises: a body including first opening, second opening, and four bend zones (28, 30, 32, 34) defined therebetween; and at least one bar (36, 38, 40, 42) arranged on the body proximate the second opening; a body including first opening, second opening, and four bend zones (28, 30, 32, 34) defined therebetween; and at least one bar (36, 38, 40, 42) arranged on the body proximate the second opening; wherein the closure member is configured to bend along the four bend zones (28, 30, 32, 34) to provide a discharge opening (44, 46) having four angled corners in an open position and to be pressed flat in a closed position; wherein the slider is configured slide over the at least one bar (36, 38, 40, 42) and engage with the closure member to close the discharge opening.
Illumination device for illuminating an interior of a motor vehicle, having a first and a second illumination subregion (28, 29) of the illumination device, and having at least one first light source with a first light cone and a second light source with a second light cone, wherein the first and second illumination subregions (28, 29) are embodied as regions of a cover element of the illumination device which immediately adjoin one another and are able to be backlit by the first or second light source (17, 18), and the light sources (17, 18) are designed to be activated independently of one another and to illuminate the interior, wherein the first light source has a first light main emission direction and the second light source has a second light main emission direction, and having a diffuser element positioned in the beam paths of the light sources (17, 18), and having a light shading element of the illumination device arranged at least partially on a connecting line between the first light source and the second light source in a manner such that a direct line of sight from the first light source to the second light source is interrupted, wherein the connecting line is located substantially at the height of the first light source and the second light source and connects the light main emission directions (22, 23), characterized in that the first light source and the second light source have a multiplicity of lightemitting diodes and in that the light shading element is arranged, viewed in the direction of the connecting line, closer to the first light source than to the second light source in a manner such that, if the first light source is activated and the second light source is deactivated, only the first illumination subregion is illuminable by means of the first light cone, and if the second light source is activated, the second illumination subregion and at least partially the first illumination subregion are illuminable by means of the second light cone.
A method of displacing an extraneous gas with a gaseous fuel in a distribution system comprising an upstream end and a downstream end and containing said extraneous gas at a first pressure; said method comprising: (a) shutting down a gaseous fuel utilization device and thereby loading said distribution system with extraneous gas at said first pressure; (b) introducing said gaseous fuel into said distribution system at said upstream end such that said gaseous fuel flows towards said downstream end, thus defining an upstream direction and a downstream direction, wherein said gaseous fuel is introduced into said distribution system at a second pressure greater than said first pressure; characterised in that said method further comprises: (c) displacing said extraneous gas by said introduction of said gaseous fuel so that at least a portion of said extraneous gas is displaced into a gas accumulation zone in fluid flow communication with said distribution system and, thus, purged from said distribution system such that said extraneous gas is sequestered in said gas accumulation zone. (a) shutting down a gaseous fuel utilization device and thereby loading said distribution system with extraneous gas at said first pressure; (b) introducing said gaseous fuel into said distribution system at said upstream end such that said gaseous fuel flows towards said downstream end, thus defining an upstream direction and a downstream direction, wherein said gaseous fuel is introduced into said distribution system at a second pressure greater than said first pressure; (c) displacing said extraneous gas by said introduction of said gaseous fuel so that at least a portion of said extraneous gas is displaced into a gas accumulation zone in fluid flow communication with said distribution system and, thus, purged from said distribution system such that said extraneous gas is sequestered in said gas accumulation zone.
Mycosubtilin, the fatty acid chain of which contains 17 carbon atoms and having glutamine instead of asparagine in position 3 in the peptide ring (Gln3 C17 mycosubtilin) thereof and represented by the formula below:
A gas turbine engine component assembly, comprising: a first component having a first surface and a second surface opposite the first surface; and a second component having a first surface, a second surface opposite the first surface of the second component, and an impingement slot extending from the second surface of the second component to the first surface of the second component, the second surface of the first component and the first surface of the second component defining a cooling channel therebetween in fluid communication with the impingement slot, wherein the impingement slot is in fluid communication with the second surface of the first component, wherein the impingement slot includes an inlet and a slot tab configured to direct airflow into the cooling channel at least partially in a lateral direction parallel to the second surface of the first component such that a cross flow is generated in the cooling channel, characterised in that the slot tab is a portion of the second component that has been punched out of the second component and bent away from the second component to a non-perpendicular angle by a punch manufacturing process, a size of the inlet being dependent upon the shape of the slot tab and a length of the slot tab, the slot tab being bent away from the second component at a fold line, and wherein the slot tab is curved around a longitudinal axis of the slot tab, the longitudinal axis extending perpendicularly from the fold line to a corner of the slot tab. a first component having a first surface and a second surface opposite the first surface; and a second component having a first surface, a second surface opposite the first surface of the second component, and an impingement slot extending from the second surface of the second component to the first surface of the second component, the second surface of the first component and the first surface of the second component defining a cooling channel therebetween in fluid communication with the impingement slot, wherein the impingement slot is in fluid communication with the second surface of the first component, wherein the impingement slot includes an inlet and a slot tab configured to direct airflow into the cooling channel at least partially in a lateral direction parallel to the second surface of the first component such that a cross flow is generated in the cooling channel, characterised in that the slot tab is a portion of the second component that has been punched out of the second component and bent away from the second component to a non-perpendicular angle by a punch manufacturing process, a size of the inlet being dependent upon the shape of the slot tab and a length of the slot tab, the slot tab being bent away from the second component at a fold line, and wherein the slot tab is curved around a longitudinal axis of the slot tab, the longitudinal axis extending perpendicularly from the fold line to a corner of the slot tab.
A controller applied to an internal combustion engine including a fuel vapor processing system (20, 21), which purges and processes collected fuel vapor in intake air at a downstream side of an air flow meter, and an exhaust gas recirculation system (16, 17, 18), which recirculates some of the exhaust gas to the intake air using intake negative pressure, the controller being characterized by: a correction unit configured to correct at least one of a volume efficiency and a cylinder intake air amount of the internal combustion engine in accordance with an amount of purge air drawn into the intake air; and a control unit configured to use the at least one of the volume efficiency and the cylinder intake air amount that has been corrected by the correction unit for calculation of an intake air temperature correction amount used to correct an ignition timing of the internal combustion engine in accordance with an intake air temperature, or for calculation of a target opening of an EGR valve that adjusts an exhaust gas recirculation amount. a correction unit configured to correct at least one of a volume efficiency and a cylinder intake air amount of the internal combustion engine in accordance with an amount of purge air drawn into the intake air; and a control unit configured to use the at least one of the volume efficiency and the cylinder intake air amount that has been corrected by the correction unit for calculation of an intake air temperature correction amount used to correct an ignition timing of the internal combustion engine in accordance with an intake air temperature, or for calculation of a target opening of an EGR valve that adjusts an exhaust gas recirculation amount.
A method for allocating a BSG in a network including Broadband Network Gateways, BNGs, used for subscriber management and Broadband Service Gateways, BSGs, used for service processing, wherein the BSGs and the BNGs are interconnected through an Internet Protocol/Multi-Protocol Label Switching, IP/MPLS, network; wherein an edge node, EN, controller performs unified control and management on the BSGs and the BNGs, and presents the BSGs and the BNGs as a virtual EN to an authentication, authorization, and accounting, AAA server and a Dynamic Host Configuration Protocol, DHCP, server, and wherein the method comprises: receiving, by the EN controller from a BNG, a service request message comprising a subscriber identifier, wherein the subscriber identifier is a physical access loop identifier, and wherein the BNG is set on an access node, AN, and the physical access loop identifier comprises an identifier of the AN, and one or more of a chassis number, a rack number, a frame number, a slot number, a sub-slot number, and a port number of the AN; obtaining, by the EN controller, the physical access loop identifier in the service request message; converting, by the EN controller, the physical access loop identifier in the service request message into a logic access loop identifier, such that the identifier of the AN is converted into an identifier of the virtual EN, and the chassis number, the rack number, the frame number, the slot number, the sub-slot number, and the port number of the AN are converted into a chassis number, a rack number, a frame number, a slot number, a sub-slot number, and a port number of the virtual EN; forwarding, by the EN controller, the service request message comprising the logic access loop identifier to the AAA server or the DHCP server, such that the AAA server or the DHCP server see the virtual EN while not the BNG; receiving, by the EN controller, a service response message from the AAA server or the DHCP server in response to the service request message, wherein the service response message comprises the logic access loop identifier; converting, by the EN controller, the logic access loop identifier in the service response message into the physical access loop identifier; querying, by the EN controller, a first mapping relationship between the physical access loop identifier and a BSG address according to the physical access loop identifier, so as to obtain a first BSG address corresponding to the physical access loop identifier; and returning, by the EN controller to the BNG, the service response message comprising the first BSG address.
A method for identifying network nodes (110a-c) of a first Radio Access Technology, "RAT", and of a wireless communication network, which network nodes (110a-c) are at least potentially neighboring each other, wherein the method comprises: - obtaining (204a-b; 401) multiple information sets associated with multiple communication devices (120a-c), respectively, each communication device (120a-c) supporting both the first RAT and another, second RAT, each information set, thus associated with a communication device, identifying: a network node of the first RAT, and one or more network nodes of the second RAT that have been identified by the communication device when the communication device was associated with a communicative connection to said identified network node of the first RAT, characterized in that the method further comprises - identifying (205; 402), based on the obtained multiple information sets, and on that the information sets identifying the network nodes (110a-b) of the first RAT are identifying the same one or more network nodes of the second RAT, the network nodes (110a-b) of the first RAT that are at least potentially neighboring each other - obtaining (204a-b; 401) multiple information sets associated with multiple communication devices (120a-c), respectively, each communication device (120a-c) supporting both the first RAT and another, second RAT, each information set, thus associated with a communication device, identifying: a network node of the first RAT, and one or more network nodes of the second RAT that have been identified by the communication device when the communication device was associated with a communicative connection to said identified network node of the first RAT, characterized in that the method further comprises - identifying (205; 402), based on the obtained multiple information sets, and on that the information sets identifying the network nodes (110a-b) of the first RAT are identifying the same one or more network nodes of the second RAT, the network nodes (110a-b) of the first RAT that are at least potentially neighboring each other a network node of the first RAT, and one or more network nodes of the second RAT that have been identified by the communication device when the communication device was associated with a communicative connection to said identified network node of the first RAT, - identifying (205; 402), based on the obtained multiple information sets, and on that the information sets identifying the network nodes (110a-b) of the first RAT are identifying the same one or more network nodes of the second RAT, the network nodes (110a-b) of the first RAT that are at least potentially neighboring each other
An electrode material comprising: an electrode active material represented by Li x Fe y A z BO 4 as a main component, wherein A represents Mn or both Mn and Co, B represents one or more selected from a group consisting of P, Si, and S, 0≤x<4, 0<y<1.5, and 0<z<1.5; and nickel, wherein particle surfaces of the electrode active material are coated with a carbonaceous film, and a content by weight of the nickel with respect to the electrode material is in a range of 1 ppm to 100 ppm, and a content by weight of the manganese with respect to the electrode material is in a range of 243 ppm to 4604 ppm. an electrode active material represented by Li x Fe y A z BO 4 as a main component, wherein A represents Mn or both Mn and Co, B represents one or more selected from a group consisting of P, Si, and S, 0≤x<4, 0<y<1.5, and 0<z<1.5; and nickel, wherein particle surfaces of the electrode active material are coated with a carbonaceous film, and a content by weight of the nickel with respect to the electrode material is in a range of 1 ppm to 100 ppm, and a content by weight of the manganese with respect to the electrode material is in a range of 243 ppm to 4604 ppm.